DIGIMAT LEARNING MANAGEMENT PLATFORM

Electrical Engineering (12,004 Video Lectures)

Link NPTEL Course Name NPTEL Lecture Title
Link Nonlinear Dynamical Systems Lecture 1 - Introduction
Link Nonlinear Dynamical Systems Lecture 2 - First Order systems
Link Nonlinear Dynamical Systems Lecture 3 - Classification of Equilibrium points
Link Nonlinear Dynamical Systems Lecture 4 - Lipschitz Functions
Link Nonlinear Dynamical Systems Lecture 5 - Existence/uniqueness theorems
Link Nonlinear Dynamical Systems Lecture 6 - Existence/uniqueness of solutions to differential equations
Link Nonlinear Dynamical Systems Lecture 7 - Lyapunov theorem on stability
Link Nonlinear Dynamical Systems Lecture 8 - Extension of Lyapunov's Theorem in different contexts
Link Nonlinear Dynamical Systems Lecture 9 - LaSalle's Invariance principle, Barbashin and Krasovski theorems, periodic orbits
Link Nonlinear Dynamical Systems Lecture 10 - Bendixson criterion and Poincare-Bendixson criterion. Example: Lotka Volterra predator prey model
Link Nonlinear Dynamical Systems Lecture 11 - Bendixson and Poincare-Bendixson criteria van-der-Pol Oscillator
Link Nonlinear Dynamical Systems Lecture 12 - Scilab simulation of Lotka Volterra predator prey model, van-der-Pol Oscillator Review of linearization, operating point/operating trajectory
Link Nonlinear Dynamical Systems Lecture 13 - Signals, operators
Link Nonlinear Dynamical Systems Lecture 14 - Norms of signals, systems (operators), Finite gain L2 stable
Link Nonlinear Dynamical Systems Lecture 15 - Nyquist plots and Nyquist criterion for stability
Link Nonlinear Dynamical Systems Lecture 16 - Interconnection between linear system & non-linearity, passive filters
Link Nonlinear Dynamical Systems Lecture 17 - Passive filters, Dissipation equality, positive real lemma
Link Nonlinear Dynamical Systems Lecture 18 - Positive real lemma proof
Link Nonlinear Dynamical Systems Lecture 19 - Definition for positive realness and Kalman Yakubovich-Popov Theorem
Link Nonlinear Dynamical Systems Lecture 20 - Kalman-Yakubovich-Popov Lemma/theorem and memoryless nonlinearities
Link Nonlinear Dynamical Systems Lecture 21 - Loop tranformations and circle criterion
Link Nonlinear Dynamical Systems Lecture 22 - Nonlinearities based on circle criterion
Link Nonlinear Dynamical Systems Lecture 23 - Limit cycles
Link Nonlinear Dynamical Systems Lecture 24 - Popov criterion continuous, frequency-domain theorem
Link Nonlinear Dynamical Systems Lecture 25 - Popov criterion continuous, frequency-domain theorem
Link Nonlinear Dynamical Systems Lecture 26 - Describing function method
Link Nonlinear Dynamical Systems Lecture 27 - Describing Function : 2
Link Nonlinear Dynamical Systems Lecture 28 - Describing : optimal gain
Link Nonlinear Dynamical Systems Lecture 29 - Describing : optimal gain
Link Nonlinear Dynamical Systems Lecture 30 - Describing functions : Jump Hysteresis
Link Nonlinear Dynamical Systems Lecture 31 - Describing functions : sufficient conditions for existence of periodic orbits non existence of periodic orbits
Link Nonlinear Dynamical Systems Lecture 32 - Describing functions for nonlinearities
Link Nonlinear Dynamical Systems Lecture 33 - Ideal relay with Hysteresis and dead zone
Link Nonlinear Dynamical Systems Lecture 34 - Dynamical systems on manifolds-1
Link Nonlinear Dynamical Systems Lecture 35 - Dynamical systems on manifolds-2
Link Power System Dynamics and Control Lecture 1 - Introduction
Link Power System Dynamics and Control Lecture 2 - Introduction
Link Power System Dynamics and Control Lecture 3 - Analysis of Dynamical Systems
Link Power System Dynamics and Control Lecture 4 - Analysis of Dynamical Systems (Continued.)
Link Power System Dynamics and Control Lecture 5 - Analysis of LINEAR Time Invariant Dynamical Systems
Link Power System Dynamics and Control Lecture 6 - Analysis of LINEAR Time Invariant Dynamical Systems (Continued.)
Link Power System Dynamics and Control Lecture 7 - Stiff Systems, Multi Time Scale Modeling
Link Power System Dynamics and Control Lecture 8 - Numerical Integration
Link Power System Dynamics and Control Lecture 9 - Numerical Integration (Continued.)
Link Power System Dynamics and Control Lecture 10 - Numerical Integration (Continued.)
Link Power System Dynamics and Control Lecture 11 - Modeling of Synchronous Machines
Link Power System Dynamics and Control Lecture 12 - Modeling of Synchronous Machines (Continued.)
Link Power System Dynamics and Control Lecture 13 - Modeling of Synchronous Machines (Continued.)
Link Power System Dynamics and Control Lecture 14 - Modeling of Synchronous Machines. dq0 transformation (Continued.)
Link Power System Dynamics and Control Lecture 15 - Modeling of Synchronous Machines. Standard Parameters
Link Power System Dynamics and Control Lecture 16 - Modeling of Synchronous Machines. Standard Parameters
Link Power System Dynamics and Control Lecture 17 - Synchronous Generator Models using Standard Parameters
Link Power System Dynamics and Control Lecture 18 - Synchronous Generator Models using Standard Parameters. PER UNIT REPRESENTATION
Link Power System Dynamics and Control Lecture 19 - Open Circuit Response of a Synchronous Generator
Link Power System Dynamics and Control Lecture 20 - Synchronous Machine Modeling. Short Circuit Analysis (Continued.)
Link Power System Dynamics and Control Lecture 21 - Synchronous Machine Modeling. Short Circuit Analysis (Continued.) Synchronization of a Synchronous Machine
Link Power System Dynamics and Control Lecture 22 - Synchronization of a Synchronous Machine (Continued.)
Link Power System Dynamics and Control Lecture 23 - Simplified Synchronous Machine Models
Link Power System Dynamics and Control Lecture 24 - Excitation Systems
Link Power System Dynamics and Control Lecture 25 - Excitation System Modeling
Link Power System Dynamics and Control Lecture 26 - Excitation System Modeling. Automatic Voltage Regulator
Link Power System Dynamics and Control Lecture 27 - Excitation System Modeling. Automatic Voltage Regulator (Continued.)
Link Power System Dynamics and Control Lecture 28 - Excitation System Modeling. Automatic Voltage Regulator (Simulation)
Link Power System Dynamics and Control Lecture 29 - Excitation System Modeling. Automatic Voltage Regulator (Simulation) – (Continued.)
Link Power System Dynamics and Control Lecture 30 - Excitation System Modeling. Automatic Voltage Regulator. Linearized Analysis
Link Power System Dynamics and Control Lecture 31 - Load Modeling
Link Power System Dynamics and Control Lecture 32 - Induction Machines, Transmission Lines
Link Power System Dynamics and Control Lecture 33 - Transmission Lines. Prime Mover Systems
Link Power System Dynamics and Control Lecture 34 - Transmission Lines (Continued.) Prime Mover Systems
Link Power System Dynamics and Control Lecture 35 - Prime Mover Systems. Stability in Integrated Power System
Link Power System Dynamics and Control Lecture 36 - Stability in Integrated Power System: Two Machine Example
Link Power System Dynamics and Control Lecture 37 - Two Machine System (Continued.)
Link Power System Dynamics and Control Lecture 38 - Stability in Integrated Power System: Large Systems
Link Power System Dynamics and Control Lecture 39 - Frequency/Angular Stability Programs. Stability Phenomena: Voltage Stability Example
Link Power System Dynamics and Control Lecture 40 - Voltage Stability Example (Continued.). Fast Transients: Tools and Phenomena
Link Power System Dynamics and Control Lecture 41 - Torsional Transients: Phenomena of Sub-Synchronous Resonance
Link Power System Dynamics and Control Lecture 42 - Sub-Synchronous Resonance. Stability Improvement
Link Power System Dynamics and Control Lecture 43 - Stability Improvement
Link Power System Dynamics and Control Lecture 44 - Stability Improvement. Power System Stabilizers
Link Power System Dynamics and Control Lecture 45 - Stability Improvement (Large Disturbance Stability)
Link Control Engineering (Prof. S.D. Agashe) Lecture 1 - The Control Problem
Link Control Engineering (Prof. S.D. Agashe) Lecture 2 - Some More Examples
Link Control Engineering (Prof. S.D. Agashe) Lecture 3 - Different Kinds of Control Systems
Link Control Engineering (Prof. S.D. Agashe) Lecture 4 - History of Feedback
Link Control Engineering (Prof. S.D. Agashe) Lecture 5 - Modern Control Problems
Link Control Engineering (Prof. S.D. Agashe) Lecture 6 - DC Motor Speed Control
Link Control Engineering (Prof. S.D. Agashe) Lecture 7 - System Modelling, Analogy
Link Control Engineering (Prof. S.D. Agashe) Lecture 8 - Causes of System Error
Link Control Engineering (Prof. S.D. Agashe) Lecture 9 - Calculation of Error
Link Control Engineering (Prof. S.D. Agashe) Lecture 10 - Control System Sensitivity
Link Control Engineering (Prof. S.D. Agashe) Lecture 11 - Automatic Control of DC Motor
Link Control Engineering (Prof. S.D. Agashe) Lecture 12 - Proportional Control
Link Control Engineering (Prof. S.D. Agashe) Lecture 13 - Non-Unity Feedback
Link Control Engineering (Prof. S.D. Agashe) Lecture 14 - Signal-Flow Graph
Link Control Engineering (Prof. S.D. Agashe) Lecture 15 - Mason's Gain Formula
Link Control Engineering (Prof. S.D. Agashe) Lecture 16 - Signal-Flow Graph for DC Motor Control
Link Control Engineering (Prof. S.D. Agashe) Lecture 17 - Steady-State Calculations
Link Control Engineering (Prof. S.D. Agashe) Lecture 18 - Differential Equation Model and Laplace Transformation Model
Link Control Engineering (Prof. S.D. Agashe) Lecture 19 - D-Operator Method
Link Control Engineering (Prof. S.D. Agashe) Lecture 20 - Second-Order System Response
Link Control Engineering (Prof. S.D. Agashe) Lecture 21 - Frequency Response
Link Control Engineering (Prof. S.D. Agashe) Lecture 22 - Laplace Transformation Theorems
Link Control Engineering (Prof. S.D. Agashe) Lecture 23 - Final Value Theorem
Link Control Engineering (Prof. S.D. Agashe) Lecture 24 - Transfer Function and Pole-Zero Diagram
Link Control Engineering (Prof. S.D. Agashe) Lecture 25 - 'Good' Poles and 'Bad' Poles
Link Control Engineering (Prof. S.D. Agashe) Lecture 26 - Signal Flow Graph with Transfer Functions
Link Control Engineering (Prof. S.D. Agashe) Lecture 27 - s-Domain and t-Domain
Link Control Engineering (Prof. S.D. Agashe) Lecture 28 - Second-Order System Response in s-Domain
Link Control Engineering (Prof. S.D. Agashe) Lecture 29 - Integral Feedback
Link Control Engineering (Prof. S.D. Agashe) Lecture 30 - Root-Locus Method
Link Control Engineering (Prof. S.D. Agashe) Lecture 31 - Root-Locus Rules
Link Control Engineering (Prof. S.D. Agashe) Lecture 32 - Asymptotes of Root Locus
Link Control Engineering (Prof. S.D. Agashe) Lecture 33 - Routh Array
Link Control Engineering (Prof. S.D. Agashe) Lecture 34 - Singular Cases
Link Control Engineering (Prof. S.D. Agashe) Lecture 35 - Closed Loop Poles
Link Control Engineering (Prof. S.D. Agashe) Lecture 36 - Controller in the Forwarded Path
Link Control Engineering (Prof. S.D. Agashe) Lecture 37 - Mapping of Control in the Complex-Plane
Link Control Engineering (Prof. S.D. Agashe) Lecture 38 - Encirclement by a Curve
Link Control Engineering (Prof. S.D. Agashe) Lecture 39 - Nyquist Criterion
Link Control Engineering (Prof. S.D. Agashe) Lecture 40 - Application of the Nyquist Criterion
Link Control Engineering (Prof. S.D. Agashe) Lecture 41 - Polar Plot and Bode Plots
Link Control Engineering (Prof. S.D. Agashe) Lecture 42 - Logarithmic Scale for Frequency
Link Control Engineering (Prof. S.D. Agashe) Lecture 43 - 'Asymptotic' DB Gain
Link Control Engineering (Prof. S.D. Agashe) Lecture 44 - Compensating Network
Link Control Engineering (Prof. S.D. Agashe) Lecture 45 - Nichols' Chart
Link Control Engineering (Prof. S.D. Agashe) Lecture 46 - Time Domain Methods of Analysis and Design
Link Control Engineering (Prof. S.D. Agashe) Lecture 47 - State-Variable Equations
Link Power Electronics Lecture 1 - Power Electronics
Link Power Electronics Lecture 2 - Power Electronics
Link Power Electronics Lecture 3 - Power Electronics
Link Power Electronics Lecture 4 - Power Electronics
Link Power Electronics Lecture 5 - Power Electronics
Link Power Electronics Lecture 6 - Power Electronics
Link Power Electronics Lecture 7 - Power Electronics
Link Power Electronics Lecture 8 - Power Electronics
Link Power Electronics Lecture 9 - Power Electronics
Link Power Electronics Lecture 10 - Power Electronics
Link Power Electronics Lecture 11 - Power Electronics
Link Power Electronics Lecture 12 - Power Electronics
Link Power Electronics Lecture 13 - Power Electronics
Link Power Electronics Lecture 14 - Power Electronics
Link Power Electronics Lecture 15 - Power Electronics
Link Power Electronics Lecture 16 - Power Electronics
Link Power Electronics Lecture 17 - Power Electronics
Link Power Electronics Lecture 18 - Power Electronics
Link Power Electronics Lecture 19 - Power Electronics
Link Power Electronics Lecture 20 - Power Electronics
Link Power Electronics Lecture 21 - Power Electronics
Link Power Electronics Lecture 22 - Power Electronics
Link Power Electronics Lecture 23 - Power Electronics
Link Power Electronics Lecture 24 - Power Electronics
Link Power Electronics Lecture 25 - Power Electronics
Link Power Electronics Lecture 26 - Power Electronics
Link Power Electronics Lecture 27 - Power Electronics
Link Power Electronics Lecture 28 - Power Electronics
Link Power Electronics Lecture 29 - Power Electronics
Link Power Electronics Lecture 30 - Power Electronics
Link Power Electronics Lecture 31 - Power Electronics
Link Power Electronics Lecture 32 - Power Electronics
Link Power Electronics Lecture 33 - Power Electronics
Link Power Electronics Lecture 34 - Power Electronics
Link Power Electronics Lecture 35 - Power Electronics
Link Power Electronics Lecture 36 - Power Electronics
Link Power Electronics Lecture 37 - Power Electronics
Link Power Electronics Lecture 38 - Power Electronics
Link Power Electronics Lecture 39 - Power Electronics
Link Power Electronics Lecture 40 - Power Electronics
Link Power Electronics Lecture 41 - Power Electronics
Link Power Electronics Lecture 42 - Power Electronics
Link Power Electronics Lecture 43 - Power Electronics
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 1 - Introduction Micro to Nano A Journey into Intergrated Circuit Technology
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 2 - Introduction Micro to Nano A Journey into Intergrated Circuit Technology
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 3 - Crystal Properties and Silico Growth
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 4 - Crystal Properties and Silico Growth (Continued...)
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 5 - IC Fab Labs and Fabrication of IC
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 6 - Diffusion
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 7 - Diffusion (Continued...)
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 8 - Solid State Diffusion
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 9 - Solid State Diffusion (Continued...)
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 10 - Solid State Diffusion (Continued...)
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 11 - Thermal Oxidation of Silicons
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 12 - Thermal Oxidation of Silicons
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 13 - Thermal Oxidation of Silicons
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 14 - Thermal Oxidation of Silicons (Continued...)
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 15 - Thermal Oxidation of Silicons (Continued...)
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 16 - Lithography
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 17 - Lithography
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 18 - Lithography
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 19 - ION Implantation
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 20 - ION Implantation
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 21 - ION Implantation and Silicon IC Processing Flow for CMOS Technology
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 22 - ION Implantation and Silicon IC Processing Flow for CMOS Technology
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 23 - Silicon IC Processing Flow for CMOS Technology
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 24 - Thin Film Deposition
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 25 - Thin Film Deposition
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 26 - Thin Film Deposition
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 27 - Thin Film Deposition and Etching in VLSI Processing
Link Fabrication of Silicon VLSI Circuits using the MOS technology Lecture 28 - Etching in VLSI Processing and Back -End Technology
Link NOC:Computational Electromagnetics and Applications Lecture 1 - Lecture 1
Link NOC:Computational Electromagnetics and Applications Lecture 2 - Lecture 2
Link NOC:Computational Electromagnetics and Applications Lecture 3 - Lecture 3
Link NOC:Computational Electromagnetics and Applications Lecture 4 - Exercise 1
Link NOC:Computational Electromagnetics and Applications Lecture 5 - Exercise 2
Link NOC:Computational Electromagnetics and Applications Lecture 6 - Exercise 3
Link NOC:Computational Electromagnetics and Applications Lecture 7 - Lab Tour 1
Link NOC:Computational Electromagnetics and Applications Lecture 8 - Summary week 1
Link NOC:Computational Electromagnetics and Applications Lecture 9 - Lecture 4
Link NOC:Computational Electromagnetics and Applications Lecture 10 - Lecture 5
Link NOC:Computational Electromagnetics and Applications Lecture 11 - Exercise 4
Link NOC:Computational Electromagnetics and Applications Lecture 12 - Exercise 5
Link NOC:Computational Electromagnetics and Applications Lecture 13 - Exercise 6
Link NOC:Computational Electromagnetics and Applications Lecture 14 - Summary Week 2
Link NOC:Computational Electromagnetics and Applications Lecture 15 - Lecture 6
Link NOC:Computational Electromagnetics and Applications Lecture 16 - Lecture 7
Link NOC:Computational Electromagnetics and Applications Lecture 17 - Lecture 8
Link NOC:Computational Electromagnetics and Applications Lecture 18 - Exercise 7
Link NOC:Computational Electromagnetics and Applications Lecture 19 - Exercise 8
Link NOC:Computational Electromagnetics and Applications Lecture 20 - Summary Week 3
Link NOC:Computational Electromagnetics and Applications Lecture 21 - Lecture 9
Link NOC:Computational Electromagnetics and Applications Lecture 22 - Lecture 10
Link NOC:Computational Electromagnetics and Applications Lecture 23 - Lecture 11
Link NOC:Computational Electromagnetics and Applications Lecture 24 - Lecture 12
Link NOC:Computational Electromagnetics and Applications Lecture 25 - Lecture 13
Link NOC:Computational Electromagnetics and Applications Lecture 26 - Lecture 14
Link NOC:Computational Electromagnetics and Applications Lecture 27 - Exercise 9
Link NOC:Computational Electromagnetics and Applications Lecture 28 - Lab Tour - 2
Link NOC:Computational Electromagnetics and Applications Lecture 29 - Summary Week 4
Link NOC:Computational Electromagnetics and Applications Lecture 30 - Lecture 15
Link NOC:Computational Electromagnetics and Applications Lecture 31 - Lecture 16
Link NOC:Computational Electromagnetics and Applications Lecture 32 - Lecture 17
Link NOC:Computational Electromagnetics and Applications Lecture 33 - Lecture 18
Link NOC:Computational Electromagnetics and Applications Lecture 34 - Exercise 10
Link NOC:Computational Electromagnetics and Applications Lecture 35 - Summary week 5
Link NOC:Computational Electromagnetics and Applications Lecture 36 - Lecture 19
Link NOC:Computational Electromagnetics and Applications Lecture 37 - Lecture 20
Link NOC:Computational Electromagnetics and Applications Lecture 38 - Lecture 21
Link NOC:Computational Electromagnetics and Applications Lecture 39 - Lecture 22
Link NOC:Computational Electromagnetics and Applications Lecture 40 - Exercise 11
Link NOC:Computational Electromagnetics and Applications Lecture 41 - Summary week 6
Link NOC:Computational Electromagnetics and Applications Lecture 42 - Exercise 12
Link NOC:Computational Electromagnetics and Applications Lecture 43 - Exercise 13
Link NOC:Computational Electromagnetics and Applications Lecture 44 - Exercise 14
Link NOC:Computational Electromagnetics and Applications Lecture 45 - Exercise 15
Link NOC:Computational Electromagnetics and Applications Lecture 46 - Exercise 16
Link NOC:Computational Electromagnetics and Applications Lecture 47 - Exercise 17
Link NOC:Computational Electromagnetics and Applications Lecture 48 - Summary week 7
Link NOC:Computational Electromagnetics and Applications Lecture 49 - Lecture 23
Link NOC:Computational Electromagnetics and Applications Lecture 50 - Lecture 24
Link NOC:Computational Electromagnetics and Applications Lecture 51 - Lecture 25
Link NOC:Computational Electromagnetics and Applications Lecture 52 - Exercise 18
Link NOC:Computational Electromagnetics and Applications Lecture 53 - Exercise 19
Link NOC:Computational Electromagnetics and Applications Lecture 54 - Lab tour 3
Link NOC:Computational Electromagnetics and Applications Lecture 55 - Summary week 8
Link NOC:Computational Electromagnetics and Applications Lecture 56 - Lecture 26
Link NOC:Computational Electromagnetics and Applications Lecture 57 - Lecture 27
Link NOC:Computational Electromagnetics and Applications Lecture 58 - Lecture 28
Link NOC:Computational Electromagnetics and Applications Lecture 59 - Lecture 29
Link NOC:Computational Electromagnetics and Applications Lecture 60 - Lecture 30
Link NOC:Computational Electromagnetics and Applications Lecture 61 - Lecture 31
Link NOC:Computational Electromagnetics and Applications Lecture 62 - Lab tour 4
Link NOC:Computational Electromagnetics and Applications Lecture 63 - Summary week 9
Link NOC:Computational Electromagnetics and Applications Lecture 64 - Lecture 32
Link NOC:Computational Electromagnetics and Applications Lecture 65 - Lecture 33
Link NOC:Computational Electromagnetics and Applications Lecture 66 - Lecture 34
Link NOC:Computational Electromagnetics and Applications Lecture 67 - Lecture 35
Link NOC:Computational Electromagnetics and Applications Lecture 68 - Exercise 20
Link NOC:Computational Electromagnetics and Applications Lecture 69 - Lab tour 5
Link NOC:Computational Electromagnetics and Applications Lecture 70 - Summary week 10
Link NOC:Computational Electromagnetics and Applications Lecture 71 - Lecture 36
Link NOC:Computational Electromagnetics and Applications Lecture 72 - Lecture 37
Link NOC:Computational Electromagnetics and Applications Lecture 73 - Lecture 38
Link NOC:Computational Electromagnetics and Applications Lecture 74 - Lecture 39
Link NOC:Computational Electromagnetics and Applications Lecture 75 - Lecture 40
Link NOC:Computational Electromagnetics and Applications Lecture 76 - Summary week 11
Link NOC:Computational Electromagnetics and Applications Lecture 77 - Lecture 41
Link NOC:Computational Electromagnetics and Applications Lecture 78 - Lecture 42
Link NOC:Computational Electromagnetics and Applications Lecture 79 - Lecture 43
Link NOC:Computational Electromagnetics and Applications Lecture 80 - Lecture 44
Link NOC:Computational Electromagnetics and Applications Lecture 81 - Exercise 21
Link NOC:Computational Electromagnetics and Applications Lecture 82 - Exercise 22
Link NOC:Computational Electromagnetics and Applications Lecture 83 - Summary week 12
Link NOC:Basic Electronics Lecture 1 - A brief history of electronics
Link NOC:Basic Electronics Lecture 2 - Superposition
Link NOC:Basic Electronics Lecture 3 - Useful circuit techniques - 1
Link NOC:Basic Electronics Lecture 4 - Useful circuit techniques - 2
Link NOC:Basic Electronics Lecture 5 - Phasors - 1
Link NOC:Basic Electronics Lecture 6 - Phasors - 2
Link NOC:Basic Electronics Lecture 7 - RC/RL circuits in time domain - 1
Link NOC:Basic Electronics Lecture 8 - RC/RL circuits in time domain - 2
Link NOC:Basic Electronics Lecture 9 - RC/RL circuits in time domain - 3
Link NOC:Basic Electronics Lecture 10 - RC/RL circuits in time domain - 4
Link NOC:Basic Electronics Lecture 11 - RC/RL circuits in time domain - 5
Link NOC:Basic Electronics Lecture 12 - Simulation of RC circuit
Link NOC:Basic Electronics Lecture 13 - Diode circuits - 1
Link NOC:Basic Electronics Lecture 14 - Diode circuits - 2
Link NOC:Basic Electronics Lecture 15 - Diode circuits - 3
Link NOC:Basic Electronics Lecture 16 - Diode circuits - 4
Link NOC:Basic Electronics Lecture 17 - Diode circuits - 5
Link NOC:Basic Electronics Lecture 18 - Diode circuits - 6
Link NOC:Basic Electronics Lecture 19 - Diode rectifiers - 1
Link NOC:Basic Electronics Lecture 20 - Diode rectifiers - 2
Link NOC:Basic Electronics Lecture 21 - Diode rectifiers - 3
Link NOC:Basic Electronics Lecture 22 - Bipolar Junction Transistor - 1
Link NOC:Basic Electronics Lecture 23 - Bipolar Junction Transistor - 2
Link NOC:Basic Electronics Lecture 24 - Bipolar Junction Transistor - 3
Link NOC:Basic Electronics Lecture 25 - BJT amplifier - 1
Link NOC:Basic Electronics Lecture 26 - BJT amplifier - 2
Link NOC:Basic Electronics Lecture 27 - BJT amplifier - 3
Link NOC:Basic Electronics Lecture 28 - BJT amplifier - 4
Link NOC:Basic Electronics Lecture 29 - BJT amplifier - 5
Link NOC:Basic Electronics Lecture 30 - BJT amplifier - 6
Link NOC:Basic Electronics Lecture 31 - BJT amplifier - 7
Link NOC:Basic Electronics Lecture 32 - Introduction to op-amps
Link NOC:Basic Electronics Lecture 33 - Op-amp circuits - 1
Link NOC:Basic Electronics Lecture 34 - Op-amp circuits - 2
Link NOC:Basic Electronics Lecture 35 - Op-amp circuits - 3
Link NOC:Basic Electronics Lecture 36 - Difference amplifier
Link NOC:Basic Electronics Lecture 37 - Instrumentation amplifier - 1
Link NOC:Basic Electronics Lecture 38 - Instrumentation amplifier - 2
Link NOC:Basic Electronics Lecture 39 - Op-amp nonidealities - 1
Link NOC:Basic Electronics Lecture 40 - Op-amp nonidealities - 2
Link NOC:Basic Electronics Lecture 41 - Bode plots - 1
Link NOC:Basic Electronics Lecture 42 - Bode plots - 2
Link NOC:Basic Electronics Lecture 43 - Bode plots - 3
Link NOC:Basic Electronics Lecture 44 - Op-amp filters
Link NOC:Basic Electronics Lecture 45 - Simulation of op-amp filter
Link NOC:Basic Electronics Lecture 46 - Precision rectifiers - 1
Link NOC:Basic Electronics Lecture 47 - Precision rectifiers - 2
Link NOC:Basic Electronics Lecture 48 - Precision rectifiers - 3
Link NOC:Basic Electronics Lecture 49 - Simulation of triangle-to-sine converter
Link NOC:Basic Electronics Lecture 50 - Schmitt triggers - 1
Link NOC:Basic Electronics Lecture 51 - Schmitt triggers - 2
Link NOC:Basic Electronics Lecture 52 - Schmitt triggers - 3
Link NOC:Basic Electronics Lecture 53 - Sinusoidal oscillators - 1
Link NOC:Basic Electronics Lecture 54 - Sinusoidal oscillators - 2
Link NOC:Basic Electronics Lecture 55 - Introduction to digital circuits
Link NOC:Basic Electronics Lecture 56 - Boolean algebra
Link NOC:Basic Electronics Lecture 57 - Karnaugh maps
Link NOC:Basic Electronics Lecture 58 - Combinatorial circuits - 1
Link NOC:Basic Electronics Lecture 59 - Combinatorial circuits - 2
Link NOC:Basic Electronics Lecture 60 - Combinatorial circuits - 3
Link NOC:Basic Electronics Lecture 61 - Introduction to sequential circuits
Link NOC:Basic Electronics Lecture 62 - Latch and flip-flop
Link NOC:Basic Electronics Lecture 63 - JK flip-flop
Link NOC:Basic Electronics Lecture 64 - D flip-flop
Link NOC:Basic Electronics Lecture 65 - Shift registers
Link NOC:Basic Electronics Lecture 66 - Counters - 1
Link NOC:Basic Electronics Lecture 67 - Counters - 2
Link NOC:Basic Electronics Lecture 68 - Simulation of a synchronous counter
Link NOC:Basic Electronics Lecture 69 - 555 timer
Link NOC:Basic Electronics Lecture 70 - Digital-to-analog conversion - 1
Link NOC:Basic Electronics Lecture 71 - Digital-to-analog conversion - 2
Link NOC:Basic Electronics Lecture 72 - Analog-to-digital conversion
Link NOC:Antennas Lecture 1 - Antenna Introduction - I
Link NOC:Antennas Lecture 2 - Antenna Introduction - II
Link NOC:Antennas Lecture 3 - Antenna Introduction - III
Link NOC:Antennas Lecture 4 - Antenna Fundamentals - I
Link NOC:Antennas Lecture 5 - Antenna Fundamentals - II
Link NOC:Antennas Lecture 6 - Antenna Radiation Hazards - I
Link NOC:Antennas Lecture 7 - Antenna Radiation Hazards - II
Link NOC:Antennas Lecture 8 - Dipole Antennas - I
Link NOC:Antennas Lecture 9 - Dipole Antennas - II
Link NOC:Antennas Lecture 10 - Dipole Antennas - III
Link NOC:Antennas Lecture 11 - Monopole Antennas - I
Link NOC:Antennas Lecture 12 - Monopole Antennas - II
Link NOC:Antennas Lecture 13 - Loop Antennas
Link NOC:Antennas Lecture 14 - Slot Antennas
Link NOC:Antennas Lecture 15 - Linear Arrays - I
Link NOC:Antennas Lecture 16 - Linear Arrays - II
Link NOC:Antennas Lecture 17 - Linear Arrays - III
Link NOC:Antennas Lecture 18 - Planar Arrays
Link NOC:Antennas Lecture 19 - Microstrip Antennas (MSA)
Link NOC:Antennas Lecture 20 - Rectangular MSA
Link NOC:Antennas Lecture 21 - MSA Parametric Analysis - I
Link NOC:Antennas Lecture 22 - MSA Parametric Analysis - II
Link NOC:Antennas Lecture 23 - Circular MSA
Link NOC:Antennas Lecture 24 - Broadband MSA - I
Link NOC:Antennas Lecture 25 - Broadband MSA - II
Link NOC:Antennas Lecture 26 - Broadband MSA - III
Link NOC:Antennas Lecture 27 - Broadband MSA - IV
Link NOC:Antennas Lecture 28 - Broadband MSA - V
Link NOC:Antennas Lecture 29 - Compact MSA - I
Link NOC:Antennas Lecture 30 - Compact MSA - II
Link NOC:Antennas Lecture 31 - Compact MSA - III
Link NOC:Antennas Lecture 32 - Tunable MSA - I
Link NOC:Antennas Lecture 33 - Tunable MSA - II
Link NOC:Antennas Lecture 34 - Circularly Polarized MSA - I
Link NOC:Antennas Lecture 35 - Circularly Polarized MSA - II
Link NOC:Antennas Lecture 36 - Circularly Polarized MSA - III
Link NOC:Antennas Lecture 37 - MSA Arrays - I
Link NOC:Antennas Lecture 38 - MSA Arrays - II
Link NOC:Antennas Lecture 39 - MSA Arrays - III
Link NOC:Antennas Lecture 40 - Helical Antennas - I
Link NOC:Antennas Lecture 41 - Helical Antennas - II
Link NOC:Antennas Lecture 42 - Helical Antennas - III
Link NOC:Antennas Lecture 43 - Helical Antennas - IV
Link NOC:Antennas Lecture 44 - Helical Antennas - V
Link NOC:Antennas Lecture 45 - Horn Antennas - I
Link NOC:Antennas Lecture 46 - Horn Antennas - II
Link NOC:Antennas Lecture 47 - Horn Antennas - III
Link NOC:Antennas Lecture 48 - Horn Antennas - IV
Link NOC:Antennas Lecture 49 - Horn Antennas - V
Link NOC:Antennas Lecture 50 - Yagi-Uda and Log-Periodic Antennas - I
Link NOC:Antennas Lecture 51 - Yagi-Uda and Log-Periodic Antennas - II
Link NOC:Antennas Lecture 52 - Yagi-Uda and Log-Periodic Antennas - III
Link NOC:Antennas Lecture 53 - IE3D Session TA - I
Link NOC:Antennas Lecture 54 - IE3D Session TA - II
Link NOC:Antennas Lecture 55 - IE3D Session TA - III
Link NOC:Antennas Lecture 56 - Reflector Antennas - I
Link NOC:Antennas Lecture 57 - Reflector Antennas - II
Link NOC:Antennas Lecture 58 - Reflector Antennas - III
Link NOC:Antennas Lecture 59 - Reflector Antennas - IV
Link NOC:Antennas Lecture 60 - Lab Session
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 1 - Module 1 - Lecture 1 - Introduction
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 2 - Module 1 - Lecture 2 - Origin of Wavelets
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 3 - Module 1 - Lecture 3 - Haar Wavelet
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 4 - Module 2 - Lecture 1 - Dyadic Wavelet
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 5 - Module 2 - Lecture 2 - Dilates and Translates of Haar Wavelets
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 6 - Module 2 - Lecture 3 - L2 Norm of a Function
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 7 - Module 3 - Lecture 1 - Piecewise Constant Representation of a Function
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 8 - Module 3 - Lecture 2 - Ladder of Subspaces
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 9 - Module 3 - Lecture 3 - Scaling Function for Haar Wavelet Demo
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 10 - Demonstration 1: Piecewise constant approximation of functions
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 11 - Module 4 - Lecture 1 - Vector Representation of Sequences
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 12 - Module 4 - Lecture 2 - Properties of Norm
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 13 - Module 4 - Lecture 3 - Parseval's Theorem
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 14 - Module 5 - Lecture 1 - Equivalence of sequences and functions
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 15 - Module 5 - Lecture 2 - Angle between Functions and their Decomposition
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 16 - Demonstration 2: Additional Information on Direct-Sum
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 17 - Module 6 - Lecture 1 - Introduction to filter banks
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 18 - Module 6 - Lecture 2 - Haar Analysis Filter Bank in Z-domain
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 19 - Module 6 - Lecture 3 - Haar Synthesis Filter Bank in Z-domain
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 20 - Module 7 - Lecture 1 - Moving from Z-domain to frequency domain
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 21 - Module 7 - Lecture 2 - Frequency Response of Haar Analysis Low pass Filter bank
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 22 - Module 7 - Lecture 3 - Frequency Response of Haar Analysis High pass Filter bank
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 23 - Module 8 - Lecture 1 - Ideal two-band filter bank
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 24 - Module 8 - Lecture 2 - Disqualification of Ideal filter bank
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 25 - Module 8 - Lecture 3 - Realizable two-band filter bank
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 26 - Demonstration 3: Demonstration: DWT of images
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 27 - Module 9 - Lecture 1 - Relating Fourier transform of scaling function to filter bank
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 28 - Module 9 - Lecture 2 - Fourier transform of scaling function
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 29 - Module 9 - Lecture 3 - Construction of scaling and wavelet functions from filter bank
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 30 - Demonstration 4: Demonstration: Constructing scaling and wavelet functions
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 31 - Module 10 - Lecture 1 - Introduction to upsampling and down sampling as Multirate operations
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 32 - Module 10 - Lecture 2 - Up sampling by a general factor M- a Z-domain analysis.
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 33 - Module 10 - Lecture 3 - Down sampling by a general factor M- a Z-domain analysis
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 34 - Module 11 - Lecture 1 - Z domain analysis of 2 channel filter bank.
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 35 - Module 11 - Lecture 2 - Effect of X (-Z) in time domain and aliasing
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 36 - Module 11 - Lecture 3 - Consequences of aliasing and simple approach to avoid it
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 37 - Module 12 - Lecture 1 - Revisiting aliasing and the Idea of perfect reconstruction
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 38 - Module 12 - Lecture 2 - Applying perfect reconstruction and alias cancellation on Haar MRA
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 39 - Module 12 - Lecture 3 - Introduction to Daubechies family of MRA
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 40 - Module 13 - Lecture 1 - Power Complementarity of low pass filter
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 41 - Module 13 - Lecture 2 - Applying perfect reconstruction condition to obtain filter coefficient
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 42 - Module 14 - Lecture 1 - Effect of minimum phase requirement on filter coefficients
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 43 - Module 14 - Lecture 2 - Building compactly supported scaling functions
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 44 - Module 14 - Lecture 3 - Second member of Daubechies family
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 45 - Module 15 - Lecture 1 - Fourier transform analysis of Haar scaling and Wavelet functions
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 46 - Module 15 - Lecture 2 - Revisiting Fourier Transform and Parseval's theorem
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 47 - Module 15 - Lecture 3 - Transform Analysis of Haar Wavelet function
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 48 - Module 16 - Lecture 1 - Nature of Haar scaling and Wavelet functions in frequency domain
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 49 - Module 16 - Lecture 2 - The Idea of Time-Frequency Resolution
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 50 - Module 16 - Lecture 3 - Some thoughts on Ideal time- frequency domain behavior
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 51 - Module 17 - Lecture 1 - Defining Probability Density function
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 52 - Module 17 - Lecture 2 - Defining Mean, Variance and “containment in a given domain”
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 53 - Module 17 - Lecture 3 - Example: Haar Scaling function
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 54 - Module 17 - Lecture 4 - Variance from a slightly different perspective
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 55 - Module 18 - Lecture 1 - Signal transformations: effect on mean and variance
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 56 - Module 18 - Lecture 2 - Time-Bandwidth product and its properties
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 57 - Module 18 - Lecture 3 - Simplification of Time-Bandwidth formulae
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 58 - Module 19 - Lecture 1 - Introduction
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 59 - Module 19 - Lecture 2 - Evaluation of Time-Bandwidth product
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 60 - Module 19 - Lecture 3 - Optimal function in the sense of Time-Bandwidth product
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 61 - Module 20 - Lecture 1 - Discontent with the “Optimal function”.
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 62 - Module 20 - Lecture 2 - Journey from infinite to finite Time-Bandwidth product of Haar scaling function
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 63 - Module 20 - Lecture 3 - More insights about Time-Bandwidth product
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 64 - Module 20 - Lecture 4 - Time-frequency plane
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 65 - Module 20 - Lecture 5 - Tiling the Time-frequency plane
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 66 - Module 21 - Lecture 1 - STFT: Conditions for valid windows
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 67 - Module 21 - Lecture 2 - STFT: Time domain and frequency domain formulations
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 68 - Module 21 - Lecture 3 - STFT: Duality in the interpretations
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 69 - Module 21 - Lecture 4 - Continuous Wavelet Transform (CWT)
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 70 - Demonstration 5
Link NOC:Fundamentals of Wavelets, Filter Banks and Time Frequency Analysis Lecture 71 - Student’s Presentation
Link NOC:Analog Circuits (2017) Lecture 1 - Module 1 - Introduction
Link NOC:Analog Circuits (2017) Lecture 2 - Module 2 - Poles and zeros
Link NOC:Analog Circuits (2017) Lecture 3 - Module 3 - OP-AMPs
Link NOC:Analog Circuits (2017) Lecture 4 - Module 4 - Application of Op-Amps
Link NOC:Analog Circuits (2017) Lecture 5 - Module 5 - Inverting amplifier and Non Inverting amplifier
Link NOC:Analog Circuits (2017) Lecture 6 - Module 1 - Non Idealities in Op-AMP (Finite Gain, Finite Bandwidth and Slew Rate)
Link NOC:Analog Circuits (2017) Lecture 7 - Module 2 - Non Idealities in Op-AMP (Offset Voltage and Bias Current)
Link NOC:Analog Circuits (2017) Lecture 8 - Module 3 - Bode Plot
Link NOC:Analog Circuits (2017) Lecture 9 - Module 4 - Frequency Response
Link NOC:Analog Circuits (2017) Lecture 10 - Module 1 - Frequency Response (High Frequency Response)
Link NOC:Analog Circuits (2017) Lecture 11 - Module 2 - Frequency Response example
Link NOC:Analog Circuits (2017) Lecture 12 - Module 3 - Feedback
Link NOC:Analog Circuits (2017) Lecture 13 - Module 4 - Effects of Feedback
Link NOC:Analog Circuits (2017) Lecture 14 - Tutorial 1 and 2
Link NOC:Analog Circuits (2017) Lecture 15 - Module 1 - Effect of feedback and stability
Link NOC:Analog Circuits (2017) Lecture 16 - Module 2 - Stability
Link NOC:Analog Circuits (2017) Lecture 17 - Module 3 - Stability and pole location
Link NOC:Analog Circuits (2017) Lecture 18 - Module 4 - Stability and Pole location continuation
Link NOC:Analog Circuits (2017) Lecture 19 - Tutorial 3
Link NOC:Analog Circuits (2017) Lecture 20 - Module 1 - Gain Margin – An example
Link NOC:Analog Circuits (2017) Lecture 21 - Module 2 - Frequency Compensation
Link NOC:Analog Circuits (2017) Lecture 22 - Module 3 - Filters
Link NOC:Analog Circuits (2017) Lecture 23 - Module 4 - Filter prototypes
Link NOC:Analog Circuits (2017) Lecture 24 - Tutorial 4
Link NOC:Analog Circuits (2017) Lecture 25 - Tutorial 5
Link NOC:Analog Circuits (2017) Lecture 26 - Tutorial 6
Link NOC:Analog Circuits (2017) Lecture 27 - Module 1 - Chebyshev Prototype, Filter transformation
Link NOC:Analog Circuits (2017) Lecture 28 - Module 2 - Filter Transformations (Continued....)
Link NOC:Analog Circuits (2017) Lecture 29 - Module 3 - Active Filters
Link NOC:Analog Circuits (2017) Lecture 30 - Module 4 - Non Linear Applications of OPAMPS
Link NOC:Analog Circuits (2017) Lecture 31 - Module 5 - Limiter, Diodes
Link NOC:Analog Circuits (2017) Lecture 32 - Module 1 - Oscillators
Link NOC:Analog Circuits (2017) Lecture 33 - Module 2 - Oscillator Amplitude Control , Quadrature Oscillator
Link NOC:Analog Circuits (2017) Lecture 34 - Module 3 - Multivibators
Link NOC:Analog Circuits (2017) Lecture 35 - Module 4 - Multivibrators (Continued...)
Link NOC:Analog Circuits (2017) Lecture 36 - Module 5 - Monostable Multivibator
Link NOC:Analog Circuits (2017) Lecture 37 - Module 1 - Zener Effect, Rectifiers
Link NOC:Analog Circuits (2017) Lecture 38 - Module 2 - Rectifiers
Link NOC:Analog Circuits (2017) Lecture 39 - Module 3 - Clamper, Peak Rectifier, Super diodes
Link NOC:Analog Circuits (2017) Lecture 40 - Module 4 - BJT DC Circuits
Link NOC:Analog Circuits (2017) Lecture 41 - Module 5 - Current Mirror
Link NOC:Microwave Theory and Techniques Lecture 1 - Microwave Theory and Techniques Introduction - I
Link NOC:Microwave Theory and Techniques Lecture 2 - Microwave Theory and Techniques Introduction - II
Link NOC:Microwave Theory and Techniques Lecture 3 - Microwave Theory and Techniques Introduction - III
Link NOC:Microwave Theory and Techniques Lecture 4 - Effects of Microwaves on Human Body - I
Link NOC:Microwave Theory and Techniques Lecture 5 - Effects of Microwaves on Human Body - II
Link NOC:Microwave Theory and Techniques Lecture 6 - Waveguides - I: Parallel Plane Waveguides
Link NOC:Microwave Theory and Techniques Lecture 7 - Waveguides - II: Parallel Plane Waveguides
Link NOC:Microwave Theory and Techniques Lecture 8 - Waveguides - III: Rectangular Waveguides
Link NOC:Microwave Theory and Techniques Lecture 9 - Transmission Lines - I: Coaxial Cables, Strip Lines and Microstrip Lines
Link NOC:Microwave Theory and Techniques Lecture 10 - Transmission Lines - II: Transmission Line Model, Open and Short Circuited Lossless Transmission Lines
Link NOC:Microwave Theory and Techniques Lecture 11 - Smith Chart and Impedance Matching - I: using Quarter Wave Transformer
Link NOC:Microwave Theory and Techniques Lecture 12 - Smith Chart and Impedance Matching - II: using Lumped Components
Link NOC:Microwave Theory and Techniques Lecture 13 - Smith Chart and Impedance Matching - III: using Short and Open Circuited Stubs
Link NOC:Microwave Theory and Techniques Lecture 14 - ABCD - Parameters
Link NOC:Microwave Theory and Techniques Lecture 15 - S - Parameters
Link NOC:Microwave Theory and Techniques Lecture 16 - Power Dividers - I: Two-way, Three-way and Four-way Equal Power Dividers
Link NOC:Microwave Theory and Techniques Lecture 17 - Power Dividers - II: Unequal, Broadband and Compact Power Dividers
Link NOC:Microwave Theory and Techniques Lecture 18 - Microwave Couplers - I: Coupled Line Directional Couplers
Link NOC:Microwave Theory and Techniques Lecture 19 - Microwave Couplers - II: Branch Line Couplers
Link NOC:Microwave Theory and Techniques Lecture 20 - Microwave Couplers - III: Rat race Coupler and Applications
Link NOC:Microwave Theory and Techniques Lecture 21 - Microwave Filters - I: Filters and Low Pass Butterworth Filter
Link NOC:Microwave Theory and Techniques Lecture 22 - Microwave Filters - II: Low Pass Chebyshev Filters
Link NOC:Microwave Theory and Techniques Lecture 23 - Microwave Filters - III: Microstrip Realization, Transformation from LPF to other Filters
Link NOC:Microwave Theory and Techniques Lecture 24 - Microwave Filters - IV: Band Pass Filters
Link NOC:Microwave Theory and Techniques Lecture 25 - Microwave Filters - V: Coupled Line and Tunable Band Pass Filters
Link NOC:Microwave Theory and Techniques Lecture 26 - Microwave Diodes: PN Junction , Varactor, Schottky, PIN, Tunnel, and GUNN Diodes
Link NOC:Microwave Theory and Techniques Lecture 27 - Microwave Attenuators: Fixed and Variable Attenuators
Link NOC:Microwave Theory and Techniques Lecture 28 - Microwave RF Switches: Series and Shunt SPST
Link NOC:Microwave Theory and Techniques Lecture 29 - Series and Shunt SPDT Switches and Introduction to Phase Shifters
Link NOC:Microwave Theory and Techniques Lecture 30 - Microwave Phase Shifters: Switched and Loaded Line
Link NOC:Microwave Theory and Techniques Lecture 31 - Microwave Transistors: BJT, HBT, JFET, MOSFET, MESFET and HEMT
Link NOC:Microwave Theory and Techniques Lecture 32 - Microwave Amplifiers - I: Basics and Power Gain Expressions
Link NOC:Microwave Theory and Techniques Lecture 33 - Microwave Amplifiers - II: Stability and Constant Gain Circles
Link NOC:Microwave Theory and Techniques Lecture 34 - Microwave Amplifiers - III: Design Example
Link NOC:Microwave Theory and Techniques Lecture 35 - Low Noise Amplifiers - I: Noise Sources and Noise Figure
Link NOC:Microwave Theory and Techniques Lecture 36 - Low Noise Amplifiers - II: NF Circles and LNA Design
Link NOC:Microwave Theory and Techniques Lecture 37 - Power Amplifiers
Link NOC:Microwave Theory and Techniques Lecture 38 - Microwave Tubes - I : Linear Beam Tubes- Two Cavity Klystron
Link NOC:Microwave Theory and Techniques Lecture 39 - Microwave Tubes - II: Linear Beam Tubes- Reflex Klystron and TWT
Link NOC:Microwave Theory and Techniques Lecture 40 - Microwave Tubes - III: Crossed Field Tubes- Magnetron
Link NOC:Microwave Theory and Techniques Lecture 41 - Microwave Oscillators - I
Link NOC:Microwave Theory and Techniques Lecture 42 - Microwave Oscillators - II
Link NOC:Microwave Theory and Techniques Lecture 43 - Microwave Mixers - I: Fundamentals
Link NOC:Microwave Theory and Techniques Lecture 44 - Microwave Mixers - II: Circuits
Link NOC:Microwave Theory and Techniques Lecture 45 - Microwave Mixers - III: Design
Link NOC:Microwave Theory and Techniques Lecture 46 - Fundamentals of Antennas
Link NOC:Microwave Theory and Techniques Lecture 47 - Dipole, Monopole, loop and Slot Antennas
Link NOC:Microwave Theory and Techniques Lecture 48 - Linear and Planar Arrays
Link NOC:Microwave Theory and Techniques Lecture 49 - Microstrip Antennas
Link NOC:Microwave Theory and Techniques Lecture 50 - Horn and Helical Antennas
Link NOC:Microwave Theory and Techniques Lecture 51 - Yagi - Uda, Log-Periodic and Reflector Antennas
Link NOC:Microwave Theory and Techniques Lecture 52 - RF MEMS and Microwave Imaging
Link NOC:Microwave Theory and Techniques Lecture 53 - Microwave Systems
Link NOC:Microwave Theory and Techniques Lecture 54 - Microwave Measurements and Lab Demonstration
Link NOC:Microwave Theory and Techniques Lecture 55 - CST Software Introduction with Filter Design
Link NOC:Microwave Theory and Techniques Lecture 56 - Power Divider and Combiner Design in CST
Link NOC:Microwave Theory and Techniques Lecture 57 - Hybrid Coupler Design
Link NOC:Microwave Theory and Techniques Lecture 58 - Antenna Design and Amplifier Simulation in CST
Link NOC:Microwave Theory and Techniques Lecture 59 - Mixer Design in NI AWR Software - I
Link NOC:Microwave Theory and Techniques Lecture 60 - Mixer Design in NI AWR Software - II
Link NOC:Principles of Digital Communications Lecture 1 - Course Overview
Link NOC:Principles of Digital Communications Lecture 2 - Introduction to Information Theory
Link NOC:Principles of Digital Communications Lecture 3 - Entropy and its properties
Link NOC:Principles of Digital Communications Lecture 4 - Lossless Source Coding Theorem
Link NOC:Principles of Digital Communications Lecture 5 - Prefix Codes and Kraft’s Inequality
Link NOC:Principles of Digital Communications Lecture 6 - Huffman Coding
Link NOC:Principles of Digital Communications Lecture 7 - Discrete Memory-less Channels : Mutual Information
Link NOC:Principles of Digital Communications Lecture 8 - Channel Capacity - I
Link NOC:Principles of Digital Communications Lecture 9 - Channel Capacity - II
Link NOC:Principles of Digital Communications Lecture 10 - Channel Coding Theorem
Link NOC:Principles of Digital Communications Lecture 11 - Differential Entropy - I
Link NOC:Principles of Digital Communications Lecture 12 - Differential Entropy - II
Link NOC:Principles of Digital Communications Lecture 13 - Channel Capacity - III
Link NOC:Principles of Digital Communications Lecture 14 - Channel Capacity - IV
Link NOC:Principles of Digital Communications Lecture 15 - Summary of Information Theory
Link NOC:Principles of Digital Communications Lecture 16 - Signal Space Representations - I
Link NOC:Principles of Digital Communications Lecture 17 - Signal Space Representations - II
Link NOC:Principles of Digital Communications Lecture 18 - Vector Representation of a Random Process
Link NOC:Principles of Digital Communications Lecture 19 - AWGN Vector Channel
Link NOC:Principles of Digital Communications Lecture 20 - Basics of Signal Detection: ML,MAP Detection
Link NOC:Principles of Digital Communications Lecture 21 - ML,MAP Detectors for AWGN Channel
Link NOC:Principles of Digital Communications Lecture 22 - Optimal Receiver: Matched Filter
Link NOC:Principles of Digital Communications Lecture 23 - Probability of error for Optimal Receiver
Link NOC:Principles of Digital Communications Lecture 24 - Probability of Error for M-ary Scheme
Link NOC:Principles of Digital Communications Lecture 25 - Pulse Code Modulation: Quantization
Link NOC:Principles of Digital Communications Lecture 26 - Uniform Quantizer
Link NOC:Principles of Digital Communications Lecture 27 - Step Size and Quantization Noise
Link NOC:Principles of Digital Communications Lecture 28 - Non-uniform Quantizer (Lloyd-Max Quantizer)
Link NOC:Principles of Digital Communications Lecture 29 - Companded Quantization - I
Link NOC:Principles of Digital Communications Lecture 30 - Companded Quantization - II
Link NOC:Principles of Digital Communications Lecture 31 - Differential Pulse Code Modulation DPCM - I
Link NOC:Principles of Digital Communications Lecture 32 - DPCM-II (Linear Prediction)
Link NOC:Principles of Digital Communications Lecture 33 - Delta Modulation
Link NOC:Principles of Digital Communications Lecture 34 - M-ary PCM/PAM - I
Link NOC:Principles of Digital Communications Lecture 35 - M-ary PCM/PAM - II
Link NOC:Principles of Digital Communications Lecture 36 - Line Coding - I
Link NOC:Principles of Digital Communications Lecture 37 - Line Coding - II
Link NOC:Principles of Digital Communications Lecture 38 - Line Coding - III
Link NOC:Principles of Digital Communications Lecture 39 - Pulse Shaping for Zero ISI - I
Link NOC:Principles of Digital Communications Lecture 40 - Pulse Shaping for Zero ISI - II
Link NOC:Principles of Digital Communications Lecture 41 - Pulse Shaping for Zero ISI - III
Link NOC:Principles of Digital Communications Lecture 42 - Partial Response Signaling - I
Link NOC:Principles of Digital Communications Lecture 43 - Partial Response Signaling - II
Link NOC:Principles of Digital Communications Lecture 44 - Principle of Invariance of Probability of Error
Link NOC:Principles of Digital Communications Lecture 45 - Binary ASK and PSK
Link NOC:Principles of Digital Communications Lecture 46 - Binary Frequency Shift Keying - I
Link NOC:Principles of Digital Communications Lecture 47 - Binary Frequency Shift Keying - II
Link NOC:Principles of Digital Communications Lecture 48 - Quadrature Phase Shift Keying - I
Link NOC:Principles of Digital Communications Lecture 49 - Quadrature Phase Shift Keying - II
Link NOC:Principles of Digital Communications Lecture 50 - Quadrature Phase Shift Keying - III
Link NOC:Principles of Digital Communications Lecture 51 - Continuous Phase Frequency Shift Keying
Link NOC:Principles of Digital Communications Lecture 52 - Minimum Shift Keying - I
Link NOC:Principles of Digital Communications Lecture 53 - Minimum Shift Keying - II
Link NOC:Principles of Digital Communications Lecture 54 - M-ary Coherent ASK (M-ASK)
Link NOC:Principles of Digital Communications Lecture 55 - M-ary PSK
Link NOC:Principles of Digital Communications Lecture 56 - M-ary Quadrature Amplitude Modulation (M-QAM)
Link NOC:Principles of Digital Communications Lecture 57 - M-ary FSK
Link NOC:Principles of Digital Communications Lecture 58 - Comparison of M-ary Schemes
Link NOC:Principles of Digital Communications Lecture 59 - Non-coherent BFSK
Link NOC:Principles of Digital Communications Lecture 60 - Differential Phase Shift Keying
Link NOC:Principles of Digital Communications Lecture 61 - Channel Coding - I
Link NOC:Principles of Digital Communications Lecture 62 - Channel Coding - II
Link NOC:Principles of Digital Communications Lecture 63 - Channel Coding - III
Link NOC:Principles of Digital Communications Lecture 64 - Channel Coding: Hamming Codes
Link NOC:Principles of Digital Communications Lecture 65 - Channel Coding: Decoding using Standard Arrays
Link NOC:Fundamental of Power Electronics Lecture 1 - Familiarization with Power Electronic Systems
Link NOC:Fundamental of Power Electronics Lecture 2 - Overview of Basic Power Electronic Circuits from Laymans Point of View
Link NOC:Fundamental of Power Electronics Lecture 3 - Applications, Definitions, and Nature of Power Electronic Circuits
Link NOC:Fundamental of Power Electronics Lecture 4 - Components of a Power Electronic System
Link NOC:Fundamental of Power Electronics Lecture 5 - Analysis of Switched Networks
Link NOC:Fundamental of Power Electronics Lecture 6 - Review of engineering maths for power electronic circuit analysis
Link NOC:Fundamental of Power Electronics Lecture 7 - Review of semiconductor physics
Link NOC:Fundamental of Power Electronics Lecture 8 - P-N Junction
Link NOC:Fundamental of Power Electronics Lecture 9 - Power Diodes
Link NOC:Fundamental of Power Electronics Lecture 10 - Thyristors
Link NOC:Fundamental of Power Electronics Lecture 11 - Motivation for rectifier capacitor filter
Link NOC:Fundamental of Power Electronics Lecture 12 - Circuit Operation
Link NOC:Fundamental of Power Electronics Lecture 13 - Designing the circuit
Link NOC:Fundamental of Power Electronics Lecture 14 - Simulation setup for NgSpice and gEDA schematic capture
Link NOC:Fundamental of Power Electronics Lecture 15 - Simulating the circuit
Link NOC:Fundamental of Power Electronics Lecture 16 - Practicals
Link NOC:Fundamental of Power Electronics Lecture 17 - Inrush current limiting - Intro
Link NOC:Fundamental of Power Electronics Lecture 18 - Inrush current limiting - Resistor solution
Link NOC:Fundamental of Power Electronics Lecture 19 - Inrush current limiting - Thermistor solution
Link NOC:Fundamental of Power Electronics Lecture 20 - Inrush current limiting - Transformer solution
Link NOC:Fundamental of Power Electronics Lecture 21 - Inrush current limiting - MOSFET solution
Link NOC:Fundamental of Power Electronics Lecture 22 - Inrush current limiting - Relay, contactor
Link NOC:Fundamental of Power Electronics Lecture 23 - Three phase rectifier capacitor filter
Link NOC:Fundamental of Power Electronics Lecture 24 - Simulation - 3 phase rectifier capacitor filter
Link NOC:Fundamental of Power Electronics Lecture 25 - Power factor - Motivation
Link NOC:Fundamental of Power Electronics Lecture 26 - Power factor - Discussion
Link NOC:Fundamental of Power Electronics Lecture 27 - Power factor - Sinusoidal
Link NOC:Fundamental of Power Electronics Lecture 28 - Power factor for rectifier cap filter
Link NOC:Fundamental of Power Electronics Lecture 29 - Passive power improvement circuit
Link NOC:Fundamental of Power Electronics Lecture 30 - Simulation - power factor improvement
Link NOC:Fundamental of Power Electronics Lecture 31 - Linear regulators - Intro
Link NOC:Fundamental of Power Electronics Lecture 32 - Shunt regulator
Link NOC:Fundamental of Power Electronics Lecture 33 - Example on shunt regulator
Link NOC:Fundamental of Power Electronics Lecture 34 - Non-ideality and solution
Link NOC:Fundamental of Power Electronics Lecture 35 - Applications of shunt regulator
Link NOC:Fundamental of Power Electronics Lecture 36 - Series regulator
Link NOC:Fundamental of Power Electronics Lecture 37 - Efficiency of series
Link NOC:Fundamental of Power Electronics Lecture 38 - Negative and dual voltage regulators
Link NOC:Fundamental of Power Electronics Lecture 39 - Over current limiting circuits
Link NOC:Fundamental of Power Electronics Lecture 40 - Improvements to series regulator
Link NOC:Fundamental of Power Electronics Lecture 41 - Regulator performance parameters
Link NOC:Fundamental of Power Electronics Lecture 42 - Datasheet of few IC regulators
Link NOC:Fundamental of Power Electronics Lecture 43 - Common IC regulator circuits
Link NOC:Fundamental of Power Electronics Lecture 44 - Practicals 1
Link NOC:Fundamental of Power Electronics Lecture 45 - Switched mode DC-DC converter intro
Link NOC:Fundamental of Power Electronics Lecture 46 - Volt-sec and Amp-sec balance
Link NOC:Fundamental of Power Electronics Lecture 47 - Input-output relationship
Link NOC:Fundamental of Power Electronics Lecture 48 - Buck converter - operation and waveforms
Link NOC:Fundamental of Power Electronics Lecture 49 - Buck converter - component selection
Link NOC:Fundamental of Power Electronics Lecture 50 - Primary configurations
Link NOC:Fundamental of Power Electronics Lecture 51 - Boost converter
Link NOC:Fundamental of Power Electronics Lecture 52 - Buck-Boost converter
Link NOC:Fundamental of Power Electronics Lecture 53 - Simulating the primary converters
Link NOC:Fundamental of Power Electronics Lecture 54 - Forward converter
Link NOC:Fundamental of Power Electronics Lecture 55 - Core reset in forward converter
Link NOC:Fundamental of Power Electronics Lecture 56 - Simulating with lossy core reset
Link NOC:Fundamental of Power Electronics Lecture 57 - Simulating with lossless core reset
Link NOC:Fundamental of Power Electronics Lecture 58 - Flyback converter
Link NOC:Fundamental of Power Electronics Lecture 59 - Simulating the flyback converter
Link NOC:Fundamental of Power Electronics Lecture 60 - Octave mfile for design
Link NOC:Fundamental of Power Electronics Lecture 61 - Magnetics design intro
Link NOC:Fundamental of Power Electronics Lecture 62 - Magnetics review
Link NOC:Fundamental of Power Electronics Lecture 63 - Permeance
Link NOC:Fundamental of Power Electronics Lecture 64 - Inductor value and energy storage
Link NOC:Fundamental of Power Electronics Lecture 65 - Inductor area product
Link NOC:Fundamental of Power Electronics Lecture 66 - Inductor design
Link NOC:Fundamental of Power Electronics Lecture 67 - Inductor example
Link NOC:Fundamental of Power Electronics Lecture 68 - Transformer design
Link NOC:Fundamental of Power Electronics Lecture 69 - Transformer example
Link NOC:Fundamental of Power Electronics Lecture 70 - Forward converter design mfile
Link NOC:Fundamental of Power Electronics Lecture 71 - Pushpull converter
Link NOC:Fundamental of Power Electronics Lecture 72 - Flux walking in pushpull
Link NOC:Fundamental of Power Electronics Lecture 73 - PWM generation
Link NOC:Fundamental of Power Electronics Lecture 74 - Simulation of pushpull converter
Link NOC:Fundamental of Power Electronics Lecture 75 - Half bridge converter
Link NOC:Fundamental of Power Electronics Lecture 76 - Simulation of halfbridge converter
Link NOC:Fundamental of Power Electronics Lecture 77 - Full bridge converter
Link NOC:Fundamental of Power Electronics Lecture 78 - Simulation of fullbridge converter
Link NOC:Fundamental of Power Electronics Lecture 79 - Area products and mfiles
Link NOC:Fundamental of Power Electronics Lecture 80 - Intro for drive circuits
Link NOC:Fundamental of Power Electronics Lecture 81 - BJT base drive
Link NOC:Fundamental of Power Electronics Lecture 82 - BJT base drive example
Link NOC:Fundamental of Power Electronics Lecture 83 - Multi-stage base drive
Link NOC:Fundamental of Power Electronics Lecture 84 - Base drive with speed-up circuit
Link NOC:Fundamental of Power Electronics Lecture 85 - Base drive with isolation
Link NOC:Fundamental of Power Electronics Lecture 86 - MOSFET gate drive
Link NOC:Fundamental of Power Electronics Lecture 87 - MOSFET drive with isolation
Link NOC:Fundamental of Power Electronics Lecture 88 - Over-current protection
Link NOC:Fundamental of Power Electronics Lecture 89 - Snubber circuits
Link NOC:Fundamental of Power Electronics Lecture 90 - Intro for close loop control
Link NOC:Fundamental of Power Electronics Lecture 91 - Close looping dc-dc converters
Link NOC:Fundamental of Power Electronics Lecture 92 - Simulation of close loop control
Link NOC:Fundamental of Power Electronics Lecture 93 - Current control for battery charger application
Link NOC:Fundamental of Power Electronics Lecture 94 - Instability in current control and slope compensation
Link NOC:Fundamental of Power Electronics Lecture 95 - Slope compensated current control
Link NOC:Fundamental of Power Electronics Lecture 96 - Simulation of current control
Link NOC:Fundamental of Power Electronics Lecture 97 - Single phase inverter with sinusoidal pwm
Link NOC:Fundamental of Power Electronics Lecture 98 - Simulation of sinusoidal PWM
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 1 - Course Outline and Introduction
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 2 - Analytical and Numerical Methods
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 3 - Revisiting EM Concepts: Vector Algebra and Coordinate Systems
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 4 - Revisiting EM Concepts: Vector Calculus and Electrostatics
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 5 - Revisiting EM Concepts: Current Densities and Electric Fields in Materials
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 6 - Revisiting EM Concepts: Electrostatic Boundary Conditions and Shielding
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 7 - Revisiting EM Concepts: Magnetostatics
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 8 - Revisiting EM Concepts: Magnetic Forces and Materials
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 9 - Revisiting EM Concepts: Time Varying Fields
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 10 - Revisiting EM Concepts: Theory of Eddy Currents
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 11 - FEM: Variational Approach
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 12 - Finding Functional for PDEs
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 13 - Whole Domain Approximation
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 14 - 1D FEM: Problem Definition and Shape Function
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 15 - 1D FEM: Procedure
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 16 - 1D FEM: Scilab Code
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 17 - 2D FEM: Problem Definition and Shape Functions
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 18 - 2D FEM: Procedure
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 19 - 2D FEM Scilab Code: Manual Meshing
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 20 - 2D FEM Code: Gmsh and Scilab
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 21 - Computation of B and H Field and Method of Weighted Residuals
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 22 - Galerkin Method
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 23 - Calculation of Leakage Inductance of a Transformer
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 24 - Calculation of Inductance of an Induction Motor and a Gapped-Core Shunt Reactor
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 25 - Insulation Design Using FE Analysis
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 26 - Quadratic Finite Elements
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 27 - Time Harmonic FE Analysis
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 28 - Calculation of Eddy Current Losses
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 29 - Eddy Losses in Transformer Windings
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 30 - Torque Speed Characteristics of an Induction Motor and FE Analysis of Axisymmetric Problem
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 31 - Permanent Magnets: Theory
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 32 - Permanent Magnets: FEM Implementation
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 33 - Periodic and Antiperiodic Boundary Conditions in Rotating Machines
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 34 - FE Analysis of Rotating Machines
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 35 - Voltage Fed Coupled Circuit Field Analysis
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 36 - Current Fed Coupled Circuit Field Analysis
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 37 - Transient FE Analysis
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 38 - Nonlinear FE Analysis
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 39 - Computation of Forces using Maxwell Stress Tensor
Link NOC:Electrical Equipment and Machines: Finite Element Analysis Lecture 40 - Computation of force using virtual work method
Link NOC:Digital Signal Processing and its Applications Lecture 1 - Introduction: Digital signal processing and its objectives
Link NOC:Digital Signal Processing and its Applications Lecture 2 - Introduction to sampling and Fourier Transform
Link NOC:Digital Signal Processing and its Applications Lecture 3 - Sampling of sine wave and associate complication
Link NOC:Digital Signal Processing and its Applications Lecture 4 - Review of Sampling Theorem
Link NOC:Digital Signal Processing and its Applications Lecture 5 - Idealized Sampling, Reconstruction
Link NOC:Digital Signal Processing and its Applications Lecture 6 - Filters And Discrete System
Link NOC:Digital Signal Processing and its Applications Lecture 7 - Answering questions from previous lectures
Link NOC:Digital Signal Processing and its Applications Lecture 8 - Desired requirements for discrete system
Link NOC:Digital Signal Processing and its Applications Lecture 9 - Introduction to phasors
Link NOC:Digital Signal Processing and its Applications Lecture 10 - Advantages of phasors in discrete systems
Link NOC:Digital Signal Processing and its Applications Lecture 11 - What do we want from a discrete system?
Link NOC:Digital Signal Processing and its Applications Lecture 12 - Linearity - Homogeneity and Additivity
Link NOC:Digital Signal Processing and its Applications Lecture 13 - Shift Invariance and Characterization of LTI systems
Link NOC:Digital Signal Processing and its Applications Lecture 14 - Characterization of LSI system using it’s impulse response
Link NOC:Digital Signal Processing and its Applications Lecture 15 - Introduction to convolution
Link NOC:Digital Signal Processing and its Applications Lecture 16 - Convolution: Deeper ideas and understanding
Link NOC:Digital Signal Processing and its Applications Lecture 17 - Characterisation of LSI systems, Convolution-properties
Link NOC:Digital Signal Processing and its Applications Lecture 18 - Response of LSI Systems to Complex Sinusoids
Link NOC:Digital Signal Processing and its Applications Lecture 19 - Convergence of Convolution and Bibo Stability
Link NOC:Digital Signal Processing and its Applications Lecture 20 - Commutativity and Associativity
Link NOC:Digital Signal Processing and its Applications Lecture 21 - BIBO Stability of an LSI system
Link NOC:Digital Signal Processing and its Applications Lecture 22 - Causality and memory of an LSI system
Link NOC:Digital Signal Processing and its Applications Lecture 23 - Frequency response of an LSI system
Link NOC:Digital Signal Processing and its Applications Lecture 24 - Introduction and conditions of Stability
Link NOC:Digital Signal Processing and its Applications Lecture 25 - Vectors and Inner Product
Link NOC:Digital Signal Processing and its Applications Lecture 26 - Interpretation of Frequency Response as Dot Product
Link NOC:Digital Signal Processing and its Applications Lecture 27 - Interpretation of Frequency Response as Eigenvalues
Link NOC:Digital Signal Processing and its Applications Lecture 28 - Discrete time fourier transform
Link NOC:Digital Signal Processing and its Applications Lecture 29 - DTFT in LSI System and Convolution Theorem.
Link NOC:Digital Signal Processing and its Applications Lecture 30 - Definitions of sequences and Properties of DTFT
Link NOC:Digital Signal Processing and its Applications Lecture 31 - Introduction to DTFT, IDTFT
Link NOC:Digital Signal Processing and its Applications Lecture 32 - Dual to convolution property
Link NOC:Digital Signal Processing and its Applications Lecture 33 - Multiplication Property, Introduction to Parseval’s theorem
Link NOC:Digital Signal Processing and its Applications Lecture 34 - Introduction and Property of DTFT
Link NOC:Digital Signal Processing and its Applications Lecture 35 - Review of Inverse DTFT
Link NOC:Digital Signal Processing and its Applications Lecture 36 - Parseval’s Theorem and energy and time spectral density
Link NOC:Digital Signal Processing and its Applications Lecture 37 - Discussion on Unit Step
Link NOC:Digital Signal Processing and its Applications Lecture 38 - Introduction to Z transform
Link NOC:Digital Signal Processing and its Applications Lecture 39 - Example of Z transform
Link NOC:Digital Signal Processing and its Applications Lecture 40 - Region of Convergence
Link NOC:Digital Signal Processing and its Applications Lecture 41 - Properties of Z transform
Link NOC:Digital Signal Processing and its Applications Lecture 42 - Z- Transform
Link NOC:Digital Signal Processing and its Applications Lecture 43 - Rational System
Link NOC:Digital Signal Processing and its Applications Lecture 44 - Introduction and Examples of Rational Z Transform and their Inverses
Link NOC:Digital Signal Processing and its Applications Lecture 45 - Double Pole Examples and their Inverse Z Transform
Link NOC:Digital Signal Processing and its Applications Lecture 46 - Partial Fraction Decomposition
Link NOC:Digital Signal Processing and its Applications Lecture 47 - LSI System Examples
Link NOC:Digital Signal Processing and its Applications Lecture 48 - Why are Rational Systems so important?
Link NOC:Digital Signal Processing and its Applications Lecture 49 - Solving Linear constant coefficient difference equations which are valid over a finite range of time
Link NOC:Digital Signal Processing and its Applications Lecture 50 - Introduction to Resonance in Rational Systems
Link NOC:Digital Signal Processing and its Applications Lecture 51 - Characterization of Rational LSI system
Link NOC:Digital Signal Processing and its Applications Lecture 52 - Causality and stability of the ROC of the system function
Link NOC:Digital Signal Processing and its Applications Lecture 53 - Recap of Rational Systems and Discrete Time Filters
Link NOC:Digital Signal Processing and its Applications Lecture 54 - Specifications for Filter Design
Link NOC:Digital Signal Processing and its Applications Lecture 55 - Four Ideal Piecewise Constant Filters
Link NOC:Digital Signal Processing and its Applications Lecture 56 - Important Characteristics Of Ideal Filters
Link NOC:Digital Signal Processing and its Applications Lecture 57 - Synthesis of Discrete Time Filters, Realizable specifications
Link NOC:Digital Signal Processing and its Applications Lecture 58 - Realistic Specifications for low pass filter. Filter Design Process
Link NOC:Digital Signal Processing and its Applications Lecture 59 - Introduction to Filter Design. Analog IIR Filter,FIR discrete-time filter, IIR discrete-time filter
Link NOC:Digital Signal Processing and its Applications Lecture 60 - Analog to discrete transform
Link NOC:Digital Signal Processing and its Applications Lecture 61 - Intuitive transforms, Bilinear Transformation
Link NOC:Digital Signal Processing and its Applications Lecture 62 - Steps for IIR filter design
Link NOC:Digital Signal Processing and its Applications Lecture 63 - Analog filter design using Butterworth Approximation
Link NOC:Digital Signal Processing and its Applications Lecture 64 - Butterworth filter Derivation And Analysis of butterworth system function
Link NOC:Digital Signal Processing and its Applications Lecture 65 - Chebychev filter Derivation
Link NOC:Digital Signal Processing and its Applications Lecture 66 - Midsem paper review discussion
Link NOC:Digital Signal Processing and its Applications Lecture 67 - The Chebyschev Approximation
Link NOC:Digital Signal Processing and its Applications Lecture 68 - Next step in design: Obtain poles
Link NOC:Digital Signal Processing and its Applications Lecture 69 - Introduction to Frequency Transformations in the Analog Domain
Link NOC:Digital Signal Processing and its Applications Lecture 70 - High pass transformation
Link NOC:Digital Signal Processing and its Applications Lecture 71 - Band pass transformation
Link NOC:Digital Signal Processing and its Applications Lecture 72 - Frequency Transformation
Link NOC:Digital Signal Processing and its Applications Lecture 73 - Different types of filters
Link NOC:Digital Signal Processing and its Applications Lecture 74 - Impulse invariant method and ideal impulse response
Link NOC:Digital Signal Processing and its Applications Lecture 75 - Design of FIR of length (2N+1) by the truncation method,Plotting the function V(w)
Link NOC:Digital Signal Processing and its Applications Lecture 76 - IIR filter using rectangular window, IIR filter using triangular window
Link NOC:Digital Signal Processing and its Applications Lecture 77 - Proof that frequency response of an fir filter using rectangular window function centred at 0 is real
Link NOC:Digital Signal Processing and its Applications Lecture 78 - Introduction to window functions
Link NOC:Digital Signal Processing and its Applications Lecture 79 - Examples of window functions
Link NOC:Digital Signal Processing and its Applications Lecture 80 - Explanation of Gibb’s Phenomenon and it’s application
Link NOC:Digital Signal Processing and its Applications Lecture 81 - Comparison of FIR And IIR Filter’s
Link NOC:Digital Signal Processing and its Applications Lecture 82 - Comparison of FIR And IIR Filter’s
Link NOC:Digital Signal Processing and its Applications Lecture 83 - Comparison of FIR And IIR Filter’s
Link NOC:Digital Signal Processing and its Applications Lecture 84 - Introduction and approach to realization (causal rational system)
Link NOC:Digital Signal Processing and its Applications Lecture 85 - Comprehension of Signal Flow Graphs and Achievement of Pseudo Assembly Language Code
Link NOC:Digital Signal Processing and its Applications Lecture 86 - Introduction to IIR Filter Realization and Cascade Structure
Link NOC:Digital Signal Processing and its Applications Lecture 87 - Cascade Parallel Structure
Link NOC:Digital Signal Processing and its Applications Lecture 88 - Lattice Structure
Link NOC:Digital Signal Processing and its Applications Lecture 89 - Recap And Review of Lattice Structure, Realization of FIR Function
Link NOC:Digital Signal Processing and its Applications Lecture 90 - Backward recursion, Change in the recursive equation of lattice
Link NOC:Digital Signal Processing and its Applications Lecture 91 - Lattice structure for an arbitrary rational system
Link NOC:Digital Signal Processing and its Applications Lecture 92 - Example realization of lattice structure for rational system
Link NOC:Digital Signal Processing and its Applications Lecture 93 - Introductory Remarks of Discrete Fourier Transform and Frequency Domain Sampling
Link NOC:Digital Signal Processing and its Applications Lecture 94 - Principle of Duality, The Circular Convolution
Link NOC:Stochastic Control and Communication Lecture 1 - Decision Making under Uncertainty
Link NOC:Stochastic Control and Communication Lecture 2 - Expected Utility Theory - I
Link NOC:Stochastic Control and Communication Lecture 3 - Expected Utility Theory - II
Link NOC:Stochastic Control and Communication Lecture 4 - Expected Utility Theory - III
Link NOC:Stochastic Control and Communication Lecture 5 - Role of Information in Decision Making
Link NOC:Stochastic Control and Communication Lecture 6 - State Space Modelling of Sequential Decision Making, Example of Inventory Control
Link NOC:Stochastic Control and Communication Lecture 7 - Inventory Control Problem (Continued...)
Link NOC:Stochastic Control and Communication Lecture 8 - Policy-A Closed Loop Solution to Stochastic Control Problem
Link NOC:Stochastic Control and Communication Lecture 9 - Introduction to Markov Decision Processes (MDP)
Link NOC:Stochastic Control and Communication Lecture 10 - Types of Policy in MDP
Link NOC:Stochastic Control and Communication Lecture 11 - Interpreting randomised decision rules
Link NOC:Stochastic Control and Communication Lecture 12 - Stationary Transition Probability: State Diagram Representation and example of Markov policies
Link NOC:Stochastic Control and Communication Lecture 13 - Example of History Dependent Policies
Link NOC:Stochastic Control and Communication Lecture 14 - Complexity of the problem using brute force approach
Link NOC:Stochastic Control and Communication Lecture 15 - Principle of Optimality
Link NOC:Stochastic Control and Communication Lecture 16 - Dynamic Programming Algorithm
Link NOC:Stochastic Control and Communication Lecture 17 - DP Algo applied to Inventory Control Problem
Link NOC:Stochastic Control and Communication Lecture 18 - DP Algo applied to Inventory Control Problem (Continued...)
Link NOC:Stochastic Control and Communication Lecture 19 - DP Algo applied to Inventory Control Problem (Continued...)
Link NOC:Stochastic Control and Communication Lecture 20 - Optimal Stopping Problem
Link NOC:Stochastic Control and Communication Lecture 21 - Optimal Stopping Example: Secretary Problem
Link NOC:Stochastic Control and Communication Lecture 22 - Optimal Stopping Example: Secretary Problem (Continued...)
Link NOC:Stochastic Control and Communication Lecture 23 - Optimal Stopping Example: Secretary Problem (Continued...)
Link NOC:Stochastic Control and Communication Lecture 24 - Linear System Quadratic Cost Problem
Link NOC:Stochastic Control and Communication Lecture 25 - Linear System Quadratic Cost Problem (Continued...)
Link NOC:Stochastic Control and Communication Lecture 26 - Solving it via DP algorithm (Continued...)
Link NOC:Stochastic Control and Communication Lecture 27 - Equivalence between Optimal HR Policyand optimal Markov Deterministic Policy
Link NOC:Stochastic Control and Communication Lecture 28 - Stochastic Control under incomplete state information
Link NOC:Stochastic Control and Communication Lecture 29 - Stochastic Control under incomplete state information (Continued...)
Link NOC:Stochastic Control and Communication Lecture 30 - Stochastic Control under incomplete state information: Example
Link NOC:Stochastic Control and Communication Lecture 31 - Stochastic Control under incomplete state information: Example (Continued...)
Link NOC:Stochastic Control and Communication Lecture 32 - Stochastic Control under incomplete state information: Example (Continued...)
Link NOC:Stochastic Control and Communication Lecture 33 - Stochastic Control under incomplete state information: Example (Continued...)
Link NOC:Stochastic Control and Communication Lecture 34 - LQ systems with Imperfect Information - I
Link NOC:Stochastic Control and Communication Lecture 35 - LQ systems with Imperfect Information - II
Link NOC:Stochastic Control and Communication Lecture 36 - LQ systems with Imperfect Information - III
Link NOC:Stochastic Control and Communication Lecture 37 - LQ systems with Imperfect Information - IV
Link NOC:Stochastic Control and Communication Lecture 38 - Filtering - I
Link NOC:Stochastic Control and Communication Lecture 39 - Filtering - II
Link NOC:Stochastic Control and Communication Lecture 40 - Kalman Filtering - I
Link NOC:Stochastic Control and Communication Lecture 41 - Kalman Filtering - II
Link NOC:Stochastic Control and Communication Lecture 42 - Kalman Filtering - III
Link NOC:Stochastic Control and Communication Lecture 43 - Belief State Formulation - I
Link NOC:Stochastic Control and Communication Lecture 44 - Belief State Formulation - II
Link NOC:Stochastic Control and Communication Lecture 45 - Information Structures - I
Link NOC:Stochastic Control and Communication Lecture 46 - Information Structures - II
Link NOC:Stochastic Control and Communication Lecture 47 - Witsenhausen Problem - I
Link NOC:Stochastic Control and Communication Lecture 48 - Witsenhausen Problem - II
Link NOC:Stochastic Control and Communication Lecture 49 - Witsenhausen Problem - III
Link NOC:Stochastic Control and Communication Lecture 50 - Witsenhausen Problem - IV
Link NOC:Stochastic Control and Communication Lecture 51 - Witsenhausen Problem - V
Link NOC:Stochastic Control and Communication Lecture 52 - Witsenhausen Problem - VI
Link NOC:Stochastic Control and Communication Lecture 53 - Witsenhausen Problem - VII
Link NOC:Stochastic Control and Communication Lecture 54 - Team Decision Theory - I
Link NOC:Stochastic Control and Communication Lecture 55 - Team Decision Theory - II
Link NOC:Stochastic Control and Communication Lecture 56 - Team Decision Theory - III
Link NOC:Stochastic Control and Communication Lecture 57 - Team Decision Theory - IV
Link NOC:Stochastic Control and Communication Lecture 58 - Team Decision Theory - V
Link NOC:Stochastic Control and Communication Lecture 59 - Team Decision Theory - VI
Link NOC:Stochastic Control and Communication Lecture 60 - Team Decision Theory - VII
Link NOC:Stochastic Control and Communication Lecture 61 - Communication Theory - I
Link NOC:Stochastic Control and Communication Lecture 62 - Communication Theory - II
Link NOC:Stochastic Control and Communication Lecture 63 - Communication Theory - III
Link NOC:Stochastic Control and Communication Lecture 64 - Communication Theory - IV
Link NOC:Stochastic Control and Communication Lecture 65 - Communication Theory - V
Link NOC:Applied Linear Algebra (2024) Lecture 1 - Introduction - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 2 - Introduction - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 3 - Introduction - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 4 - Equivalent Systems - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 5 - Equivalent Systems - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 6 - Equivalent Systems - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 7 - Solution of Ax = b - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 8 - Solution of Ax = b - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 9 - Solution of Ax = b - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 10 - Rings, Integral Domains and Fields - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 11 - Rings, Integral Domains and Fields - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 12 - Rings, Integral Domains and Fields - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 13 - Vector Spaces and Subspaces - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 14 - Vector Spaces and Subspaces - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 15 - Vector Spaces and Subspaces - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 16 - Unions, Intersection, Sums of Subspaces - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 17 - Unions, Intersection, Sums of Subspaces - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 18 - Generating sets, Linear independence and basis - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 19 - Generating sets, Linear independence and basis - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 20 - Generating sets, Linear independence and basis - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 21 - Ordered basis and co-ordinates - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 22 - Ordered basis and co-ordinates - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 23 - Ordered basis and co-ordinates - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 24 - Rank-Nullity Theorem (Matrices) - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 25 - Rank-Nullity Theorem (Matrices) - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 26 - Rank-Nullity Theorem (Matrices) - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 27 - Rank-Nullity Theorem (Linear Transformation) - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 28 - Rank-Nullity Theorem (Linear Transformation) - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 29 - Rank-Nullity Theorem (Linear Transformation) - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 30 - Isomorphism and Inverses - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 31 - Isomorphism and Inverses - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 32 - Isomorphism and Inverses - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 33 - Dual Basis and Annihilator - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 34 - Dual Basis and Annihilator - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 35 - Dual Basis and Annihilator - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 36 - Dual maps and double dual - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 37 - Dual maps and double dual - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 38 - Dual maps and double dual - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 39 - Quotient spaces and quotient map - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 40 - Quotient spaces and quotient map - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 41 - Quotient spaces and quotient map - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 42 - Inner Product Spaces - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 43 - Inner Product Spaces - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 44 - Inner Product Spaces - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 45 - Gram Schmidt Procedure - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 46 - Gram Schmidt Procedure - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 47 - Gram Schmidt Procedure - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 48 - Best Approximation of a Vector - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 49 - Best Approximation of a Vector - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 50 - Best Approximation of a Vector - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 51 - Projection map and summary of Ax = b - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 52 - Projection map and summary of Ax = b - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 53 - Projection map and summary of Ax = b - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 54 - Linear Differential Equations - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 55 - Linear Differential Equations - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 56 - Introduction to Eigen values and Eigen vectors - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 57 - Introduction to Eigen values and Eigen vectors - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 58 - Introduction to Eigen values and Eigen vectors - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 59 - Singular Value Decomposition - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 60 - Singular Value Decomposition - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 61 - Singular Value Decomposition - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 62 - Algebraic and geometric multiplicities - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 63 - Algebraic and geometric multiplicities - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 64 - A-Invariant Subspaces - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 65 - A-Invariant Subspaces - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 66 - A-Invariant Subspaces - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 67 - Minimal Polynomial-I - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 68 - Minimal Polynomial-I - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 69 - Minimal Polynomial-I - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 70 - Minimal Polynomial-I - Part D
Link NOC:Applied Linear Algebra (2024) Lecture 71 - Minimal Polynomial-II - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 72 - Minimal Polynomial-II - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 73 - Minimal Polynomial-II - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 74 - Minimal Polynomial-II - Part D
Link NOC:Applied Linear Algebra (2024) Lecture 75 - Cayley Hamilton Theorem - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 76 - Cayley Hamilton Theorem - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 77 - Cayley Hamilton Theorem - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 78 - Jordan Canonical Form - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 79 - Jordan Canonical Form - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 80 - Jordan Canonical Form - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 81 - Algebraic Graph Theory and Consensus - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 82 - Algebraic Graph Theory and Consensus - Part B
Link NOC:Applied Linear Algebra (2024) Lecture 83 - Algebraic Graph Theory and Consensus - Part C
Link NOC:Applied Linear Algebra (2024) Lecture 84 - Positive Matrices and Leontieff's Model - Part A
Link NOC:Applied Linear Algebra (2024) Lecture 85 - Positive Matrices and Leontieff's Model - Part B
Link NOC:Digital Communication using GNU Radio Lecture 1 - Introduction to Digital Communication
Link NOC:Digital Communication using GNU Radio Lecture 2 - Understanding GNU Radio features for Digital Communication: Basic blocks, input and output
Link NOC:Digital Communication using GNU Radio Lecture 3 - Understanding GNU Radio features for Digital Communication: Advanced blocks, hardware interfacing
Link NOC:Digital Communication using GNU Radio Lecture 4 - Fundamentals of Digital Communication: Signal Processing methods, vectors, and relevant GNU Radio Examples - Part 1
Link NOC:Digital Communication using GNU Radio Lecture 5 - Fundamentals of Digital Communication: Signal Processing methods, vectors, and relevant GNU Radio Examples - Part 2
Link NOC:Digital Communication using GNU Radio Lecture 6 - Complex Baseband Signal Representation
Link NOC:Digital Communication using GNU Radio Lecture 7 - Real Passband Signal Representation, Up and Down Conversion of Complex Baseband Signals
Link NOC:Digital Communication using GNU Radio Lecture 8 - Random Variables and Random Processes
Link NOC:Digital Communication using GNU Radio Lecture 9 - Fundamentals of Digital Modulation
Link NOC:Digital Communication using GNU Radio Lecture 10 - Linear Modulation Methods: Amplitude Shift Keying (ASK)
Link NOC:Digital Communication using GNU Radio Lecture 11 - Linear Modulation Methods: Phase Shift Keying (PSK)
Link NOC:Digital Communication using GNU Radio Lecture 12 - Linear Modulation Methods: Quadrature Amplitude Modulation (QAM) and Frequency Shift Keying (FSK)
Link NOC:Digital Communication using GNU Radio Lecture 13 - Pulse Shaping for ISI Free Signaling
Link NOC:Digital Communication using GNU Radio Lecture 14 - ASK using Raised Cosine (RC) and Root-Raised Cosine (RRC) Pulse Shaping
Link NOC:Digital Communication using GNU Radio Lecture 15 - Basics of Detection: Properties of Gaussian Random Variables
Link NOC:Digital Communication using GNU Radio Lecture 16 - Basics of Detection: Gaussian Random Vectors and Hypothesis Testing
Link NOC:Digital Communication using GNU Radio Lecture 17 - Optimal Receivers for M-ary Signaling
Link NOC:Digital Communication using GNU Radio Lecture 18 - Gram-Schmidt Orthogonalisation
Link NOC:Digital Communication using GNU Radio Lecture 19 - Optimal Reception of M-ary Signals in AWGN
Link NOC:Digital Communication using GNU Radio Lecture 20 - Detection and Optimal Decision for On-Off Signaling in AWGN Channel
Link NOC:Digital Communication using GNU Radio Lecture 21 - Detection and Optimal Decision for M-ary Signaling
Link NOC:Digital Communication using GNU Radio Lecture 22 - Python for GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 23 - Extending GNU Radio Features using Python
Link NOC:Digital Communication using GNU Radio Lecture 24 - Constructing and Visualising Constellations using GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 25 - Understanding matched filtering using GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 26 - Histograms in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 27 - Visualising Symbol Error Rate in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 28 - Signal-to-Noise Ratio and Symbol Error Probability - Part 1
Link NOC:Digital Communication using GNU Radio Lecture 29 - Signal-to-Noise Ratio and Symbol Error Probability - Part 2
Link NOC:Digital Communication using GNU Radio Lecture 30 - Symbol error rate and Bit error rate
Link NOC:Digital Communication using GNU Radio Lecture 31 - Computing bit error rates in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 32 - End-to-end Digital Communication System Simulation in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 33 - Parameter Estimation for Practical Receivers - Part 1
Link NOC:Digital Communication using GNU Radio Lecture 34 - Parameter Estimation for Practical Receivers - Part 2
Link NOC:Digital Communication using GNU Radio Lecture 35 - Phase Locked Loop and Differential Modulation
Link NOC:Digital Communication using GNU Radio Lecture 36 - Maximum Likelihood delay estimate for a single symbol in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 37 - Maximum Likelihood delay estimate for multiple symbols in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 38 - Phase offse estimation in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 39 - Phase Locked Loop in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 40 - Costas Loop and Differential PSK in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 41 - Channel Equalisation
Link NOC:Digital Communication using GNU Radio Lecture 42 - Detection Strategy for Dispersive Channels
Link NOC:Digital Communication using GNU Radio Lecture 43 - Maximum Likelihood sequence estimation: Viterbi Algorithm
Link NOC:Digital Communication using GNU Radio Lecture 44 - Suboptimal Channel Equalisation: Zero-forcing Receiver
Link NOC:Digital Communication using GNU Radio Lecture 45 - Zero forcing Receiver in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 46 - Suboptimal Channel Equalisation: Linear Minimum mean-square error receiver
Link NOC:Digital Communication using GNU Radio Lecture 47 - LMMSE Receiver in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 48 - Parallelising Frequency Selective Channels
Link NOC:Digital Communication using GNU Radio Lecture 49 - Orthogonal Frequency Division Multiplexing (OFDM)
Link NOC:Digital Communication using GNU Radio Lecture 50 - OFDM in the prescence of dispersive channels
Link NOC:Digital Communication using GNU Radio Lecture 51 - Equalisation using OFDM in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 52 - Error Control Coding: Parity Check Codes
Link NOC:Digital Communication using GNU Radio Lecture 53 - Error Control Coding: Repetition Codes
Link NOC:Digital Communication using GNU Radio Lecture 54 - Error Control Coding: Linear Block Codes
Link NOC:Digital Communication using GNU Radio Lecture 55 - Repetition Codes in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 56 - Error Control Coding: Perfect Codes
Link NOC:Digital Communication using GNU Radio Lecture 57 - Error Control Coding: Hamming Codes
Link NOC:Digital Communication using GNU Radio Lecture 58 - (7,4) Hamming Code in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 59 - Rate and error-free Communication
Link NOC:Digital Communication using GNU Radio Lecture 60 - Quantisation
Link NOC:Digital Communication using GNU Radio Lecture 61 - Visualising Quantisation in GNU Radio
Link NOC:Digital Communication using GNU Radio Lecture 62 - Course Summary
Link Circuit Theory Lecture 1 - Review of Signals and Systems
Link Circuit Theory Lecture 2 - Review of Signals and Systems
Link Circuit Theory Lecture 3 - Network Equations; Initial and Final Conditions
Link Circuit Theory Lecture 4 - Problem Session 1
Link Circuit Theory Lecture 5 - Step, Impulse and Complete Responses
Link Circuit Theory Lecture 6 - 2nd Order Circuits:Magnetically Coupled Circuits
Link Circuit Theory Lecture 7 - Transformer Transform Domain Analysis
Link Circuit Theory Lecture 8 - Problem Session 2 : Step,Impulse
Link Circuit Theory Lecture 9 - Network Theorems and Network Functions
Link Circuit Theory Lecture 10 - Network Functions (Continued.)
Link Circuit Theory Lecture 11 - Amplitude and Phase of Network Functions
Link Circuit Theory Lecture 12 - Problem Session 3 : Network Theorems Transform
Link Circuit Theory Lecture 13 - Poles, Zeros and Network Response
Link Circuit Theory Lecture 14 - Single Tuned Circuits
Link Circuit Theory Lecture 15 - Single Tuned Circuits (Continued.)
Link Circuit Theory Lecture 16 - Double Tuned Circuits
Link Circuit Theory Lecture 17 - Double Tuned Circuits (Continued.)
Link Circuit Theory Lecture 18 - Problem Session 4 : Network Functions, Analysis
Link Circuit Theory Lecture 19 - Double Tuned Circuits (Continued.)
Link Circuit Theory Lecture 20 - Concept of Delay and Introduction
Link Circuit Theory Lecture 21 - Two-port Networks (Continued.)
Link Circuit Theory Lecture 22 - Problem Session 5
Link Circuit Theory Lecture 23 - Minor - 1
Link Circuit Theory Lecture 24 - The Hybrid & Transmission Parameters of 2 ports
Link Circuit Theory Lecture 25 - Problem Session 6 : Two - port networks
Link Circuit Theory Lecture 26 - Two - port Network parameters
Link Circuit Theory Lecture 27 - Two-port Interconnections
Link Circuit Theory Lecture 28 - Interconnection of Two-port Networks (Continued.)
Link Circuit Theory Lecture 29 - Problem Session 7 : Two-port Networks (Continued.)
Link Circuit Theory Lecture 30 - Scattering Matrix
Link Circuit Theory Lecture 31 - Scattering Parameters of a Two-port
Link Circuit Theory Lecture 32 - Problem Session 8 : Two- port Parameters
Link Circuit Theory Lecture 33 - Solutions of Minor - 2 Problems
Link Circuit Theory Lecture 34 - Insertion Loss
Link Circuit Theory Lecture 35 - Example of Insertion Loss and Elements
Link Circuit Theory Lecture 36 - Elements of Realizability Theory (Continued.)
Link Circuit Theory Lecture 37 - Positive Real Functions
Link Circuit Theory Lecture 38 - Testing of Positive Real Functions
Link Circuit Theory Lecture 39 - Problem Session 9
Link Circuit Theory Lecture 40 - More on PRF's and their Synthesis
Link Circuit Theory Lecture 41 - LC Driving Point Functions
Link Circuit Theory Lecture 42 - LC Driving Point Synthesis (Continued.)
Link Circuit Theory Lecture 43 - RC and RL Driving Point Synthesis
Link Circuit Theory Lecture 44 - Problem Session 10 : LC Driving Point Synthesis
Link Circuit Theory Lecture 45 - RC & RL One-port Synthesis (Continued.)
Link Circuit Theory Lecture 46 - Elementary RLC One-port Synthesis
Link Circuit Theory Lecture 47 - Properties and Synthesis of Transfer Parameters
Link Circuit Theory Lecture 48 - Resistance Terminated LC Ladder
Link Circuit Theory Lecture 49 - Resistance Terminated LC Ladder (Continued.)
Link Circuit Theory Lecture 50 - Problem session 11: Two-port Synthesis
Link Circuit Theory Lecture 51 - Network Transmission Criteria
Link Control Engineering (Prof. M. Gopal) Lecture 1 - Introduction to control problem
Link Control Engineering (Prof. M. Gopal) Lecture 2 - Basic Feedback Structure
Link Control Engineering (Prof. M. Gopal) Lecture 3 - Introduction to Control Problem (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 4 - Dynamic Systems and Dynamic Response
Link Control Engineering (Prof. M. Gopal) Lecture 5 - Dynamic Systems and Dynamic Response (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 6 - Dynamic Systems and Dynamic Response (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 7 - Dynamic Systems and Dynamic Response (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 8 - Dynamic Systems and Dynamic Response (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 9 - Dynamic Systems and Dynamic Response (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 10 - Models of Industrial Control Devices and Systems
Link Control Engineering (Prof. M. Gopal) Lecture 11 - Models of Industrial Control Devices and Systems (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 12 - Models of Industrial Control Devices and Systems( Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 13 - Models of Industrial Control Devices and Systems( Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 14 - Models of Industrial Control Devices and Systems( Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 15 - Models of Industrial Control Devices and Systems( Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 16 - Models of Industrial Control Devices and Systems (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 17 - Models of Industrial Control Devices and Systems (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 18 - Models of Industrial Control Devices and Systems (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 19 - Basic Principles of Feedback Control
Link Control Engineering (Prof. M. Gopal) Lecture 20 - Basic Principles of Feedback Control (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 21 - Basic Principles of Feedback Control (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 22 - Basic Principles of Feedback Control (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 23 - Concepts of stability and Routh Stability Criterion
Link Control Engineering (Prof. M. Gopal) Lecture 24 - Concepts of stability and Routh Stability Criterion (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 25 - Concepts of stability and Routh Stability Criterion (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 26 - The Performance of Feedback Systems
Link Control Engineering (Prof. M. Gopal) Lecture 27 - The Performance of Feedback Systems (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 28 - The Performance of Feedback Systems (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 29 - The Performance of Feedback Systems (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 30 - Compensator Design Using Root Locus Plots
Link Control Engineering (Prof. M. Gopal) Lecture 31 - Compensator Design Using Root Locus Plots (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 32 - Compensator Design Using Root Locus Plots (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 33 - Compensator Design Using Root Locus Plots (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 34 - Compensator Design Using Root Locus Plots (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 35 - The Nyquist Stability Criterion and Stability Margins
Link Control Engineering (Prof. M. Gopal) Lecture 36 - The Nyquist Stability Criterion and Stability Margins (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 37 - The Nyquist Stability Criterion and Stability Margins (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 38 - The Nyquist Stability Criterion and Stability Margins (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 39 - Feedback System Performance Based on the Frequency Response
Link Control Engineering (Prof. M. Gopal) Lecture 40 - Feedback System Performance Based on the Frequency Response (Continued.)
Link Control Engineering (Prof. M. Gopal) Lecture 41 - Compensator Design Using Frequency Response Plots
Link Embedded Systems Lecture 1 - Embedded Systems: Introduction
Link Embedded Systems Lecture 2 - Embedded Hardware
Link Embedded Systems Lecture 3 - PIC: Instruction Set
Link Embedded Systems Lecture 4 - PIC Peripherals On Chip
Link Embedded Systems Lecture 5 - ARM Processor
Link Embedded Systems Lecture 6 - More ARM Instructions
Link Embedded Systems Lecture 7 - ARM: Interrupt Processing
Link Embedded Systems Lecture 8 - Digital Signal Processors
Link Embedded Systems Lecture 9 - More on DSP Processors
Link Embedded Systems Lecture 10 - System On Chip (SOC)
Link Embedded Systems Lecture 11 - Memory
Link Embedded Systems Lecture 12 - Memory Organization
Link Embedded Systems Lecture 13 - Virtual Memory and Memory Management Unit
Link Embedded Systems Lecture 14 - Bus Structure
Link Embedded Systems Lecture 15 - Bus Structure - 2
Link Embedded Systems Lecture 16 - Bus Structure - 3 Serial Interfaces
Link Embedded Systems Lecture 17 - Serial Interfaces
Link Embedded Systems Lecture 18 - Power Aware Architecture
Link Embedded Systems Lecture 19 - Software for Embedded Systems
Link Embedded Systems Lecture 20 - Fundamentals of Embedded Operating Systems
Link Embedded Systems Lecture 21 - Scheduling Policies
Link Embedded Systems Lecture 22 - Resource Management
Link Embedded Systems Lecture 23 - Embedded - OS
Link Embedded Systems Lecture 24 - Networked Embedded Systems - I
Link Embedded Systems Lecture 25 - Networked Embedded Systems - II
Link Embedded Systems Lecture 26 - Networked Embedded Systems - III
Link Embedded Systems Lecture 27 - Networked Embedded Systems - IV
Link Embedded Systems Lecture 28 - Designing Embedded Systems - I
Link Embedded Systems Lecture 29 - Designing Embedded Systems - II
Link Embedded Systems Lecture 30 - Designing Embedded Systems- III
Link Embedded Systems Lecture 31 - Embedded System Design - IV
Link Embedded Systems Lecture 32 - Designing Embedded Systems - V
Link Embedded Systems Lecture 33 - Platform Based Design
Link Embedded Systems Lecture 34 - Compilers for Embedded Systems
Link Embedded Systems Lecture 35 - Developing Embedded Systems
Link Embedded Systems Lecture 36 - Building Dependable Embedded Systems
Link Embedded Systems Lecture 37 - Pervasive and Ubiquitous Computing
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 1 - Electric Energy Systems A Perspective
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 2 - Structure of Power Systems
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 3 - Conventional Sources of Electric Energy
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 4 - Hydroelectric Power Generation
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 5 - Non Conventional Energy Sources
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 6 - Renewable Energy (Continued.)
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 7 - Energy Storage
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 8 - Deregulation
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 9 - Air Pollutants
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 10 - Transmission Line Parameters
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 11 - Capacitance of Transmission Lines
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 12 - Characteristics and Performance of Transmission Lines
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 13 - Voltage Regulation (VR)
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 14 - Power Flow through a Line
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 15 - Methods of Voltage Control
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 16 - Compensation of Transmission Lines
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 17 - Compensation of Transmission Lines (Continued.)
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 18 - Underground Cables
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 19 - Cables (Continued.)
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 20 - Insulators for Overhead Lines
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 21 - HVDC
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 22 - HVDC (Continued.)
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 23 - Distribution Systems
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 24 - Automatic Generation Control
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 25 - Automatic Generation Control (Continued.)
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 26 - Load Flow Studies
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 27 - Load Flow Problem
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 28 - Load Flow Analysis (Continued.), Gauss Siedel Method
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 29 - Newton Raphson (NR), Load Flow Method
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 30 - Fast Decoupled Load Flow
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 31 - Control of Voltage Profile
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 32 - Optimal System Operation (Economic Operation)
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 33 - Optimal Unit Commitment
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 34 - Optimal Generation Scheduling
Link Power System Generation, Transmission and Distribution (Encapsulated from earlier Video) Lecture 35 - Optimal Load Flow (Continued.) and Hydro Thermal Scheduling
Link Power System Dynamics Lecture 1 - Introduction to Power System Stability Problem - Part-1
Link Power System Dynamics Lecture 2 - Introduction to Power System Stability Problem - Part-2
Link Power System Dynamics Lecture 3 - Introduction to Power System Stability Problem - Part-3
Link Power System Dynamics Lecture 4 - Solution of Switching Equation
Link Power System Dynamics Lecture 5 - The Equal Area Criterion for Stability - Part-1
Link Power System Dynamics Lecture 6 - The Equal Area Criterion for Stability - Part-2
Link Power System Dynamics Lecture 7 - Transient Stability Analysis of a Multi Machine System
Link Power System Dynamics Lecture 8 - Modeling of Synchronous Machine - Part-1
Link Power System Dynamics Lecture 9 - Modeling of Synchronous Machine - Part-2
Link Power System Dynamics Lecture 10 - Modeling of Synchronous Machine - Part-3
Link Power System Dynamics Lecture 11 - Modeling of Synchronous Machine - Part-4
Link Power System Dynamics Lecture 12 - Synchronous Machine Representation for Stability Studies - Part-1
Link Power System Dynamics Lecture 13 - Synchronous Machine Representation for Stability Studies - Part-2
Link Power System Dynamics Lecture 14 - Excitation Systems - Part-1
Link Power System Dynamics Lecture 15 - Excitation Systems - Part-2
Link Power System Dynamics Lecture 16 - Modeling of Excitation Systems - Part-1
Link Power System Dynamics Lecture 17 - Modeling of Excitation Systems - Part-2
Link Power System Dynamics Lecture 18 - Small Signal Stability of a Single Machine Infinite Bus System - Part-1
Link Power System Dynamics Lecture 19 - Small Signal Stability of a Single Machine Infinite Bus System - Part-2
Link Power System Dynamics Lecture 20 - Small Signal Stability of a Single Machine Infinite Bus System - Part-3
Link Power System Dynamics Lecture 21 - Small Signal Stability of a Single Machine Infinite Bus System - Part-4
Link Power System Dynamics Lecture 22 - Small Signal Stability of a Single Machine Infinite Bus System - Part-5
Link Power System Dynamics Lecture 23 - Dynamic Modeling of Steam turbines and Governors
Link Power System Dynamics Lecture 24 - Dynamic modeling of Hydro Turbines and Governors
Link Power System Dynamics Lecture 25 - Load modeling for Stability Studies
Link Power System Dynamics Lecture 26 - Numerical Integration Methods for Solving a Set of Ordinary Nonlinear Differential Equation
Link Power System Dynamics Lecture 27 - Simulation of Power System Dynamic Response
Link Power System Dynamics Lecture 28 - Dynamic Equivalents for Large Scale Systems - Part-1
Link Power System Dynamics Lecture 29 - Dynamic Equivalents for Large Scale Systems - Part-2
Link Power System Dynamics Lecture 30 - Dynamic Equivalents for Large Scale Systems - Part-3
Link Power System Dynamics Lecture 31 - Direct Method of Transient Stability Analysis - Part-1
Link Power System Dynamics Lecture 32 - Direct Method of Transient Stability Analysis - Part-2
Link Power System Dynamics Lecture 33 - Sub Synchronous Oscillations - Part-1
Link Power System Dynamics Lecture 34 - Sub Synchronous Oscillations - Part-2
Link Power System Dynamics Lecture 35 - Voltage Stability - Part-1
Link Power System Dynamics Lecture 36 - Voltage Stability - Part-2
Link Power System Dynamics Lecture 37 - Voltage Stability - Part-3
Link Power System Dynamics Lecture 38 - Voltage Stability - Part-4
Link Power System Dynamics Lecture 39 - Methods of Improving Stability - Part-1
Link Power System Dynamics Lecture 40 - Methods of Improving Stability - Part-2
Link Analog Electronic Circuits Lecture 1 - Review of DC Models of Diodes & BJT's
Link Analog Electronic Circuits Lecture 2 - Review of DC Models of BJT (Continued...) and FET
Link Analog Electronic Circuits Lecture 3 - FET Characteristics and Models
Link Analog Electronic Circuits Lecture 4 - Problem Session-1 on DC Analysis of BJT Circuits
Link Analog Electronic Circuits Lecture 5 - BJT Biasing and Bias Stability
Link Analog Electronic Circuits Lecture 6 - BJT Bias Stability (Continued...)
Link Analog Electronic Circuits Lecture 7 - FET Biasing, Current Sources
Link Analog Electronic Circuits Lecture 8 - Problem Session-2 on FET and BJT Characteristics and Biasing
Link Analog Electronic Circuits Lecture 9 - Current Mirrors; BJT Small Signal Models
Link Analog Electronic Circuits Lecture 10 - Small Signal Amplifiers: Mid Frequency Analysis
Link Analog Electronic Circuits Lecture 11 - Mid Frequency Analysis of the CE and CB Amplifier
Link Analog Electronic Circuits Lecture 12 - Problem Session-3 on Mid- Frequency Analysis of CE Amplifiers
Link Analog Electronic Circuits Lecture 13 - Midband Analysis of CB and CC Amplifiers
Link Analog Electronic Circuits Lecture 14 - Midband Analysis of FET Amplifiers
Link Analog Electronic Circuits Lecture 15 - Problem Session-4 on Midband Analysis of Amplifiers
Link Analog Electronic Circuits Lecture 16 - High Frequency Response of Small Signal Amplifiers
Link Analog Electronic Circuits Lecture 17 - High Frequency Response of Small Signal Amplifiers (Continued...)
Link Analog Electronic Circuits Lecture 18 - Low Frequency Response of Small Signal Amplifiers
Link Analog Electronic Circuits Lecture 19 - Problem Session-5 on Frequency Response of Small Signal Amplifiers
Link Analog Electronic Circuits Lecture 20 - Differential Amplifiers
Link Analog Electronic Circuits Lecture 21 - Differential Amplifiers (Continued...)
Link Analog Electronic Circuits Lecture 22 - Discussion on Minor-1 Problems and Differential Amplifiers (Continued...)
Link Analog Electronic Circuits Lecture 23 - Problem Session-6 on Frequency Response of Small Signal Amplifiers (Continued...) and Differential Amplifiers
Link Analog Electronic Circuits Lecture 24 - Use of Current Mirrors in Differential Amplifiers
Link Analog Electronic Circuits Lecture 25 - FET Differential Amplifiers and Introduction to Power Amplifiers
Link Analog Electronic Circuits Lecture 26 - Class B, Class AB and Class A Power Amplifiers
Link Analog Electronic Circuits Lecture 27 - Class A Power Amplifiers; Efficiency Considerations
Link Analog Electronic Circuits Lecture 28 - Problem Session-7 on Deferential and Power Amplifiers
Link Analog Electronic Circuits Lecture 29 - Introduction to Feedback Amplifiers
Link Analog Electronic Circuits Lecture 30 - Advantages of Negative Feedback Amplifiers
Link Analog Electronic Circuits Lecture 31 - Analysis of Feedback Amplifiers
Link Analog Electronic Circuits Lecture 32 - Analysis of the Series - Series and Other Feedback Configurations
Link Analog Electronic Circuits Lecture 33 - Problem Session-8 on Feedback Amplifiers
Link Analog Electronic Circuits Lecture 34 - Sinusoidal Oscillators : An Example of Positive Feedback
Link Analog Electronic Circuits Lecture 35 - More on Oscillators
Link Analog Electronic Circuits Lecture 36 - Solutions to Minor-2 Exam and Concluding Discussions on Oscillators
Link Analog Electronic Circuits Lecture 37 - Problem Session-9 on Oscillators
Link Analog Electronic Circuits Lecture 38 - Tuned (or Narrowband) Amplifiers
Link Analog Electronic Circuits Lecture 39 - Widebanding Techniques : Introduction & Use of Inductors
Link Analog Electronic Circuits Lecture 40 - Widebanding By Using an Inductance
Link Analog Electronic Circuits Lecture 41 - Problem Session-10 on Tuned Amplifiers
Link Analog Electronic Circuits Lecture 42 - Widebanding by Using Compound Devices
Link Analog Electronic Circuits Lecture 43 - Cascode Configuration as Wideband Amplifier
Link Analog Electronic Circuits Lecture 44 - Widebanding by Local Feedback
Link Analog Electronic Circuits Lecture 45 - Problem Session-11 on Minor-3 Problems & Widebanding by Compound Devices
Link Analog Electronic Circuits Lecture 46 - Widebanding by Local Feedback and Feedback Cascades
Link Analog Electronic Circuits Lecture 47 - Widebanding by Overall Feedback and Dual Loop Feedback
Link Analog Electronic Circuits Lecture 48 - The Differential Pair and the Gilbert Cell as Wideband Amplifiers
Link Analog Electronic Circuits Lecture 49 - Correction to Gilbert Cell Analysis and Operational Amplifier Imperfections
Link Analog Electronic Circuits Lecture 50 - Op-Amp offsets, Compensation and Slew Rate
Link Analog Electronic Circuits Lecture 51 - Op-Amp Compensation, Slew Rate and Some Problems
Link Digital Communication Lecture 1 - Introduction to the Course
Link Digital Communication Lecture 2 - Digital Representation of Analog Signals, Delta Modulation
Link Digital Communication Lecture 3 - Digital Representation of Analog Signals, Pulse Code Modulation
Link Digital Communication Lecture 4 - Digital Representation of Analog Signals
Link Digital Communication Lecture 5 - Quantization Noise in Delta Modulation (Continued...) and Time Division Multiplexing
Link Digital Communication Lecture 6 - Introduction to Line Coding
Link Digital Communication Lecture 7 - Spectral Properties of Line Codes: General Relations
Link Digital Communication Lecture 8 - Spectral Properties of Line Codes: On-off / Polar / Bipolar Signalling
Link Digital Communication Lecture 9 - Spectral Properties of Line Codes: Duobinary Manchester and HDB Codes
Link Digital Communication Lecture 10 - Baseband Pulse Shaping: Nyquist's First Criterion
Link Digital Communication Lecture 11 - Baseband Pulse Shaping; Raised Cosine Family of Pulses
Link Digital Communication Lecture 12 - Partial Response Signalling: Duobinary and Modified Duobinary Pulse Shaping
Link Digital Communication Lecture 13 - Precoding for Duobinary and Modified Duobinary Systems
Link Digital Communication Lecture 14 - Precoding for Modified Duobinary Systems (Continued...) and General Partial Response Signalling
Link Digital Communication Lecture 15 - Binary Baseband Digital Modulation Techniques
Link Digital Communication Lecture 16 - M’ary Baseband Digital Modulation Techniques
Link Digital Communication Lecture 17 - Passband Digital Modulations - I : PSK and QPSK
Link Digital Communication Lecture 18 - Passband Digital Modulations - II : Offset QPSK
Link Digital Communication Lecture 19 - Passband Digital Modulations - III : Minimum Shift Keying (MSK)
Link Digital Communication Lecture 20 - Passband Digital Modulations - IV : MSK (Continued...) : Passband Waveforms for M’ary Signalling
Link Digital Communication Lecture 21 - Passband Modulations for Band Limited Channels
Link Digital Communication Lecture 22 - Baseband and Passband Digital Demodulations : General Issues and Concepts
Link Digital Communication Lecture 23 - Digital Modulation Part - II Matched Filters
Link Digital Communication Lecture 24 - Matched Filters and Coherent Demodulation-I
Link Digital Communication Lecture 25 - Coherent Demodulation for Binary Wave Form
Link Digital Communication Lecture 26 - Demodulators for Binary Waveforms (Continued...) : Coherent and Noncoherent Receivers for Orthogonal Signalling (OOK and FSK)
Link Digital Communication Lecture 27 - Performance Analysis of Binary Digital Modulations: Signal and Noise Statistics in Coherent and Noncoherent Receivers
Link Digital Communication Lecture 28 - Error Rates for Binary Signalling : Coherent Receivers
Link Digital Communication Lecture 29 - Performance of Non Coherent FSK and Differential Phase Shift Keying
Link Digital Communication Lecture 30 - Demodulation of DPSK and M\'ary Signals
Link Digital Communication Lecture 31 - Performance of M\'ary Digital Modulations
Link Digital Communication Lecture 32 - Performance of M\'ary Digital Modulations (Continued...)
Link Digital Communication Lecture 33 - Introduction to Information Theory, Part-1
Link Digital Communication Lecture 34 - Source Coding
Link Digital Communication Lecture 35 - Error Free Communication Over a Noisy Channel
Link Digital Communication Lecture 36 - The Concept of Channel Capacity
Link Digital Communication Lecture 37 - Error Correcting Codes
Link Digital Communication Lecture 38 - Error Correcting Codes (Continued...)
Link Introduction To Electronic Circuits Lecture 1 - Introduction to the Course and Basic Electrical Quantity
Link Introduction To Electronic Circuits Lecture 2 - R.L.C. Components, Energy Considerations, Sources and Circuit Laws
Link Introduction To Electronic Circuits Lecture 3 - KCL, KVL and Network Analysis
Link Introduction To Electronic Circuits Lecture 4 - Networks Theorems ( Thevenin's Norton's )
Link Introduction To Electronic Circuits Lecture 5 - Source Transformation; Super Position Theorem and Non-Linear One-Ports
Link Introduction To Electronic Circuits Lecture 6 - Signal Wave Forms
Link Introduction To Electronic Circuits Lecture 7 - Periodic Wave Forms and Elements of Amplifiers
Link Introduction To Electronic Circuits Lecture 8 - Operational Amplifiers and Diodes
Link Introduction To Electronic Circuits Lecture 9 - Rectifiers and Power Supplies
Link Introduction To Electronic Circuits Lecture 10 - Wave Shaping Circuits
Link Introduction To Electronic Circuits Lecture 11 - More on Wave Shaping Circuits and Introduction to Natural Response of Circuits
Link Introduction To Electronic Circuits Lecture 12 - Natural Response (Continued...)
Link Introduction To Electronic Circuits Lecture 13 - Natural Response of 2nd Order Circuit
Link Introduction To Electronic Circuits Lecture 14 - Natural Response of 2nd Order Circuit (Continued...)
Link Introduction To Electronic Circuits Lecture 15 - Impedance Functions, Poles, Zeros and their Applications
Link Introduction To Electronic Circuits Lecture 16 - Natural Response and Poles and Zeros and Introduction to Forced Response
Link Introduction To Electronic Circuits Lecture 17 - Phasors and their Applications in AC Ckts, analysis
Link Introduction To Electronic Circuits Lecture 18 - More About Phasors and Introduction to Complete Response
Link Introduction To Electronic Circuits Lecture 19 - Complete Response of Electrical Circuits
Link Introduction To Electronic Circuits Lecture 20 - AC Circuit Analysis
Link Introduction To Electronic Circuits Lecture 21 - Filter Circuits and Resonance
Link Introduction To Electronic Circuits Lecture 22 - Resonance (Continued...)
Link Introduction To Electronic Circuits Lecture 23 - General Network Analysis
Link Introduction To Electronic Circuits Lecture 24 - Two-Port Networks
Link Introduction To Electronic Circuits Lecture 25 - Semiconductor Physics
Link Introduction To Electronic Circuits Lecture 26 - Semiconductor Physics (Continued...)
Link Introduction To Electronic Circuits Lecture 27 - More About Diodes Including Zener Diodes
Link Introduction To Electronic Circuits Lecture 28 - Bipolar Junction Transistors
Link Introduction To Electronic Circuits Lecture 29 - Transistors Characteristics and Biasing
Link Introduction To Electronic Circuits Lecture 30 - BJT Biasing and Introduction to Power Amplifiers
Link Introduction To Electronic Circuits Lecture 31 - BJT Power Amplifiers
Link Introduction To Electronic Circuits Lecture 32 - Power Amplifier
Link Introduction To Electronic Circuits Lecture 33 - Power Amplifiers (Continued...) and an Introduction to Small Signal Modelling of BJT
Link Introduction To Electronic Circuits Lecture 34 - Small Signal Model and Small Signal Amplifiers
Link Introduction To Electronic Circuits Lecture 35 - Small Signal Amplifiers (Continued...)
Link Introduction To Electronic Circuits Lecture 36 - Small Signal Amplifier (Continued...)
Link Introduction To Electronic Circuits Lecture 37 - Small Signal Amplifiers (Continued...)
Link Introduction To Electronic Circuits Lecture 38 - Negative Feedback
Link Introduction To Electronic Circuits Lecture 39 - Digital Circuits
Link Introduction To Electronic Circuits Lecture 40 - Digital Circuits (Continued...)
Link NOC:Analog Electronic Circuit Lecture 1 - Introduction to Analog Circuits Introduction to the Diode
Link NOC:Analog Electronic Circuit Lecture 2 - Diodes, Introduction to The Transistor
Link NOC:Analog Electronic Circuit Lecture 3 - MOS Device, Characteristics
Link NOC:Analog Electronic Circuit Lecture 4 - DC operating point
Link NOC:Analog Electronic Circuit Lecture 5 - DC operating point, amplifier design
Link NOC:Analog Electronic Circuit Lecture 6 - Common source amplifier, small signal analysis
Link NOC:Analog Electronic Circuit Lecture 7 - Common gate, common drain
Link NOC:Analog Electronic Circuit Lecture 8 - Common gate circuit
Link NOC:Analog Electronic Circuit Lecture 9 - Source degenerated amplifier
Link NOC:Analog Electronic Circuit Lecture 10 - Swing limits
Link NOC:Analog Electronic Circuit Lecture 11 - Swing limits (Continued...), multi transistor amplifiers
Link NOC:Analog Electronic Circuit Lecture 12 - Multi-transistor amplifiers
Link NOC:Analog Electronic Circuit Lecture 13 - Introduction to current sources
Link NOC:Analog Electronic Circuit Lecture 14 - Current sources/mirrors (Continued...)
Link NOC:Analog Electronic Circuit Lecture 15 - Current sources, biasing
Link NOC:Analog Electronic Circuit Lecture 16 - Differential circuits
Link NOC:Analog Electronic Circuit Lecture 17 - Differential amplifiers-I
Link NOC:Analog Electronic Circuit Lecture 18 - Differential amplifiers-II
Link NOC:Analog Electronic Circuit Lecture 19 - Differential amplifiers-III
Link NOC:Analog Electronic Circuit Lecture 20 - Self biased active load diff. amp
Link NOC:Analog Electronic Circuit Lecture 21 - Diff. Cascode amplifier, two stage amplifiers
Link NOC:Analog Electronic Circuit Lecture 22 - Two stage diff. amps, op-amps
Link NOC:Analog Electronic Circuit Lecture 23 - Op-amps, OTAs
Link NOC:Analog Electronic Circuit Lecture 24 - Circuits with op-amps
Link NOC:Analog Electronic Circuit Lecture 25 - Capacitance in MOS devices
Link NOC:Analog Electronic Circuit Lecture 26 - Common source, drain, gate-revisited
Link NOC:Analog Electronic Circuit Lecture 27 - Common gate, common drain with capacitances
Link NOC:Analog Electronic Circuit Lecture 28 - Cascode, cascade-revisit with capacitance
Link NOC:Analog Electronic Circuit Lecture 29 - Cascade amplifier (with capacitance)
Link NOC:Analog Electronic Circuit Lecture 30 - Diversion: 2-pole systems phase margin
Link NOC:Analog Electronic Circuit Lecture 31 - Diversion Continued: Two Pole Systems
Link NOC:Analog Electronic Circuit Lecture 32 - Compensation
Link NOC:Analog Electronic Circuit Lecture 33 - Op-amp Design with Compensation
Link NOC:Analog Electronic Circuit Lecture 34 - Unity Gain Bandwidth
Link NOC:Analog Electronic Circuit Lecture 35 - Power Amplification
Link NOC:Analog Electronic Circuit Lecture 36 - Power Amplifiers-2
Link NOC:Analog Electronic Circuit Lecture 37 - Power Amplifiers- Class A,B,AB,C ClassD
Link NOC:Analog Electronic Circuit Lecture 38 - Class D Amplifiers, Push-pull Amplifiers
Link NOC:Analog Electronic Circuit Lecture 39 - Introduction to Voltage Regulators
Link NOC:Analog Electronic Circuit Lecture 40 - Voltage Regulators- line, load; Conclusion Regulation
Link NOC:Nonlinear and Adaptive Control Lecture 1 - Introduction
Link NOC:Nonlinear and Adaptive Control Lecture 2 - Preliminaries
Link NOC:Nonlinear and Adaptive Control Lecture 3 - Model Reference Adaptive Control - Part 1
Link NOC:Nonlinear and Adaptive Control Lecture 4 - Model Reference Adaptive Control - Part 2
Link NOC:Nonlinear and Adaptive Control Lecture 5 - Model Reference Adaptive Control - Part 3
Link NOC:Nonlinear and Adaptive Control Lecture 6 - Adaptive Command Tracking
Link NOC:Nonlinear and Adaptive Control Lecture 7 - Robust Model Reference Adaptive Control - Part 1
Link NOC:Nonlinear and Adaptive Control Lecture 8 - Robust Model Reference Adaptive Control - Part 2
Link NOC:Nonlinear and Adaptive Control Lecture 9 - Robust Model Reference Adaptive Control - Part 3
Link NOC:Nonlinear and Adaptive Control Lecture 10 - Robust Model Reference Adaptive Control - Part 4
Link NOC:Information Theory, Coding and Cryptography Lecture 1 - Introduction to Information Theory
Link NOC:Information Theory, Coding and Cryptography Lecture 2 - Entropy, Mutual Information, Conditional and Joint Entropy
Link NOC:Information Theory, Coding and Cryptography Lecture 3 - Measures for Continuous, Random Variable, Relative Entropy
Link NOC:Information Theory, Coding and Cryptography Lecture 4 - Variable Length Codes, Prefix Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 5 - Source Coding Theorem
Link NOC:Information Theory, Coding and Cryptography Lecture 6 - various source coding Techniques: Huffman, Arithmetic, Lempel Ziv, Run Length
Link NOC:Information Theory, Coding and Cryptography Lecture 7 - Optimum Quantizer, Practical Application of Source Coding: JPEG Compression
Link NOC:Information Theory, Coding and Cryptography Lecture 8 - Introduction to Super Information
Link NOC:Information Theory, Coding and Cryptography Lecture 9 - Channel Models and Channel Capacity
Link NOC:Information Theory, Coding and Cryptography Lecture 10 - Noisy Channel Coding Theorem
Link NOC:Information Theory, Coding and Cryptography Lecture 11 - Gaussian Channel and Information Capacity Theorem
Link NOC:Information Theory, Coding and Cryptography Lecture 12 - Capacity of MIMO Channels
Link NOC:Information Theory, Coding and Cryptography Lecture 13 - Introduction to Error Control Coding
Link NOC:Information Theory, Coding and Cryptography Lecture 14 - Introduction to Galois Field
Link NOC:Information Theory, Coding and Cryptography Lecture 15 - Equivalent Codes, Generator Matrix and Parity Check Matrix
Link NOC:Information Theory, Coding and Cryptography Lecture 16 - Systematic Codes, Error Detections and Correction
Link NOC:Information Theory, Coding and Cryptography Lecture 17 - Erasure and Errors, Standard Array and Syndrome Decoding
Link NOC:Information Theory, Coding and Cryptography Lecture 18 - Probability of Error, Coding Gain and Hamming Bound
Link NOC:Information Theory, Coding and Cryptography Lecture 19 - Hamming Codes, LDPC Codes and MDS Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 20 - Introduction to Cyclic Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 21 - Generator Polynomial, Syndrome Polynomial and Matrix Representation
Link NOC:Information Theory, Coding and Cryptography Lecture 22 - Fire Code, Golay Code, CRC Codes and Circuit Implementation of Cyclic Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 23 - Introduction to BCH Codes: Generator Polynomials
Link NOC:Information Theory, Coding and Cryptography Lecture 24 - Multiple Error Correcting BCH Codes, Decoding of BCH Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 25 - Introduction to Reed Solomon (RS) Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 26 - Introduction to Convolutional Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 27 - Trellis Codes: Generator Polynomial Matrix and Encoding using Trellis
Link NOC:Information Theory, Coding and Cryptography Lecture 28 - Vitrebi Decoding and Known good Convolutional Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 29 - Introduction to Turbo Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 30 - Introduction to Trellis Coded Modulation (TCM)
Link NOC:Information Theory, Coding and Cryptography Lecture 31 - Ungerboek's Design Rules and Performance Evaluation of TCM Schemes
Link NOC:Information Theory, Coding and Cryptography Lecture 32 - TCM for Fading Channel and Space Time Trellis Codes (STTC)
Link NOC:Information Theory, Coding and Cryptography Lecture 33 - Introduction to Space Time Block Codes (STBC)
Link NOC:Information Theory, Coding and Cryptography Lecture 34 - Space Time Codes
Link NOC:Information Theory, Coding and Cryptography Lecture 35 - Space Time Codes (Continued...)
Link NOC:Information Theory, Coding and Cryptography Lecture 36 - Introduction to Cryptography: Symmetric key and Asymmetric Key Cryptography
Link NOC:Information Theory, Coding and Cryptography Lecture 37 - Some Well-Known Algorithms: DES, IDEA, PGP, DH Protocol
Link NOC:Information Theory, Coding and Cryptography Lecture 38 - Introduction to Physical Layer Security: Notion of Secrecy Capacity
Link NOC:Information Theory, Coding and Cryptography Lecture 39 - Secrecy Outage Capacity, Secrecy Outage Probability, Cooperative Jamming
Link Engineering Electromagnetics Lecture 1 - Introduction
Link Engineering Electromagnetics Lecture 2 - Transmission Lines : Wave Propagation
Link Engineering Electromagnetics Lecture 3 - Transmission Lines : Reflection,Transmission; Travelling Waves
Link Engineering Electromagnetics Lecture 4 - Transmission Lines : Travelling Waves (Continued...); Sinusoidal Signals; Impedence Transformation
Link Engineering Electromagnetics Lecture 5 - Transmission Lines : Standing Wave Ratio:Measurement of Impedence
Link Engineering Electromagnetics Lecture 6 - Transmission Lines : General Transmission Lines Equations,Low loss,Transmission Lines,Transmission Lines as Circuit Elements
Link Engineering Electromagnetics Lecture 7 - Transmission Lines : Section as Circuit Elements
Link Engineering Electromagnetics Lecture 8 - Transmission Lines : Velocities of Propagation, Transmission Lines Charts
Link Engineering Electromagnetics Lecture 9 - Transmission Lines : Smith Chart
Link Engineering Electromagnetics Lecture 10 - Transmission Lines : Impedance Matching using Stub-Lines
Link Engineering Electromagnetics Lecture 11 - Transmission Lines : Transmission Lines Parameters; (primary Constants)
Link Engineering Electromagnetics Lecture 12 - Wave Propagation
Link Engineering Electromagnetics Lecture 13 - Wave Propagation (Continued...)
Link Engineering Electromagnetics Lecture 14 - Wave Propagation : Polarisation,Poynting Vector
Link Engineering Electromagnetics Lecture 15 - Wave Propagation : Power Flow,Complex Poynting vector,wave equation for a conducting Medium
Link Engineering Electromagnetics Lecture 16 - Wave Propagation : Conducting Medium;Conductors and Dielectrics Depth of Penetration;Surface Impedance
Link Engineering Electromagnetics Lecture 17 - Wave Propagation : Surface Impedance; Power Loss in a Conductor Reflection at a Perfect conductor (Normal Inc.)
Link Engineering Electromagnetics Lecture 18 - Reflection and Refraction of waves : Reflection at the Surface of a Conducting Medium,Reflection at a Perfect Conductor (Oblique Inc.)
Link Engineering Electromagnetics Lecture 19 - Reflection and Refraction of waves (Continued...)
Link Engineering Electromagnetics Lecture 20 - Reflection and Refraction of waves (Continued...) - 1
Link Engineering Electromagnetics Lecture 21 - Reflection and Refraction of waves (Continued...); The Plane slab
Link Engineering Electromagnetics Lecture 22 - Reflection and Refraction of waves (Continued...); Transmission Line Analogy for Planes Waves
Link Engineering Electromagnetics Lecture 23 - Wave Guides
Link Engineering Electromagnetics Lecture 24 - Wave Guides (Continued...) Parallel plane Guide,Transverse Electric Waves,Field Distribution,Superposition of Plane Waves
Link Engineering Electromagnetics Lecture 25 - Wave Guides (Continued...)
Link Engineering Electromagnetics Lecture 26 - Wave Guides (Continued...) Parallel plane Guide,Characteristics of TE and Tm Waves,TEM Waves,Wave Impedances
Link Engineering Electromagnetics Lecture 27 - Wave Guides (Continued...) - 1
Link Engineering Electromagnetics Lecture 28 - Wave Guides (Continued...) - 2
Link Engineering Electromagnetics Lecture 29 - Wave Guides (Continued...) Rectangular Wave Guides
Link Engineering Electromagnetics Lecture 30 - Wave Guides (Continued...)
Link Engineering Electromagnetics Lecture 31 - Wave Guides (Continued...) Rectangular Wave Guides - 1
Link Engineering Electromagnetics Lecture 32 - Resonators General Properties
Link Engineering Electromagnetics Lecture 33 - Resonators (Continued...) Transmission Line Resonators
Link Engineering Electromagnetics Lecture 34 - Resonators (Continued...) Wave Guide Resonators
Link Engineering Electromagnetics Lecture 35 - Radiation
Link Engineering Electromagnetics Lecture 36 - Radiation (Continued...)
Link Engineering Electromagnetics Lecture 37 - Radiation (Continued...) - 1
Link Engineering Electromagnetics Lecture 38 - Radiation (Continued...) - 2
Link Engineering Electromagnetics Lecture 39 - Radiation (Continued...) Monopole Antennas half Wave Dipole Antenna
Link Engineering Electromagnetics Lecture 40 - Radiation (Continued...)
Link Engineering Electromagnetics Lecture 41 - Radiation (Continued...) 2 - Element Arrays,Yagi-Uda Array
Link NOC:Principles of Digital Communications (2018) Lecture 1 - Introduction
Link NOC:Principles of Digital Communications (2018) Lecture 2 - Signal Spaces : Waveforms and Vector Spaces
Link NOC:Principles of Digital Communications (2018) Lecture 3 - Inner Product and Orthogonal Expansion
Link NOC:Principles of Digital Communications (2018) Lecture 4 - Signal Spaces : Gram Schmidt Orthogonalization and Receiver Structures
Link NOC:Principles of Digital Communications (2018) Lecture 5 - Signal Spaces : Fourier Series and Related expansions
Link NOC:Principles of Digital Communications (2018) Lecture 6 - Signal Spaces : Bandwidth and Degree of Freedom
Link NOC:Principles of Digital Communications (2018) Lecture 7 - Random Variables and Random Processes : Discrete Random Variable
Link NOC:Principles of Digital Communications (2018) Lecture 8 - Random Variables and Random Processes : Continuous Random Variable
Link NOC:Principles of Digital Communications (2018) Lecture 9 - Random Variables and Random Processes : Multiple Random Variable
Link NOC:Principles of Digital Communications (2018) Lecture 10 - Random Variables and Random Processes : Random Vectors
Link NOC:Principles of Digital Communications (2018) Lecture 11 - Random Variables and Random Processes : Introduction to Random Process
Link NOC:Principles of Digital Communications (2018) Lecture 12 - Random Variables and Random Processes : Properties of Random Process
Link NOC:Principles of Digital Communications (2018) Lecture 13 - Random Variables and Random Processes : Gaussian Random Process - Part 1
Link NOC:Principles of Digital Communications (2018) Lecture 14 - Random Variables and Random Processes : Gaussian Random Process - Part 2
Link NOC:Principles of Digital Communications (2018) Lecture 15 - Random Variables and Random Processes : Types of Random Process
Link NOC:Principles of Digital Communications (2018) Lecture 16 - Random Variables and Random Processes : Random Process through an LTI system
Link NOC:Principles of Digital Communications (2018) Lecture 17 - Random Variables and Random Processes : Spectral description of Random Process
Link NOC:Principles of Digital Communications (2018) Lecture 18 - Waveform Coding
Link NOC:Principles of Digital Communications (2018) Lecture 19 - Modulation : Complex Baseband Representation of Passband Signals - Part 1
Link NOC:Principles of Digital Communications (2018) Lecture 20 - Modulation : Complex Baseband Representation of Passband Signals - Part 2
Link NOC:Principles of Digital Communications (2018) Lecture 21 - Modulation : Complex Baseband Representation of Passband Signals - Part 3
Link NOC:Principles of Digital Communications (2018) Lecture 22 - Modulation : Spectral Description of Sources - Part 1
Link NOC:Principles of Digital Communications (2018) Lecture 23 - Modulation : Spectral Description of Sources - Part 2
Link NOC:Principles of Digital Communications (2018) Lecture 24 - Modulation : Spectral Description of Sources using Markov Chains and Cyclostationary Random Processes
Link NOC:Principles of Digital Communications (2018) Lecture 25 - Modulation : Nyquist Pulses
Link NOC:Principles of Digital Communications (2018) Lecture 26 - Modulation : Pulse Amplitude Modulation and Quadrature Amplitude Modulation - Part 1
Link NOC:Principles of Digital Communications (2018) Lecture 27 - Modulation : Pulse Amplitude Modulation and Quadrature Amplitude Modulation - Part 2
Link NOC:Principles of Digital Communications (2018) Lecture 28 - Modulation : Orthogonal Modulation Schemes
Link NOC:Principles of Digital Communications (2018) Lecture 29 - Modulation : Differential Modulation Schemes
Link NOC:Principles of Digital Communications (2018) Lecture 30 - Detection : Maximum Aposteriori Probability (MAP) Detector and Maximum Likelihood (ML) Detector
Link NOC:Principles of Digital Communications (2018) Lecture 31 - Detection : Vector Detection
Link NOC:Principles of Digital Communications (2018) Lecture 32 - Detection : Theorem of Irrelevance and Waveform Detection
Link NOC:Principles of Digital Communications (2018) Lecture 33 - Detection : Sequence Detection
Link NOC:Principles of Digital Communications (2018) Lecture 34 - Detection : Performance of Binary Signalling Schemes
Link NOC:Principles of Digital Communications (2018) Lecture 35 - Detection : Performance of M-ary Signaling Schemes
Link NOC:Principles of Digital Communications (2018) Lecture 36 - Detection : Performance of Orthogonal Modulation Schemes and Bit-Level Demodulation
Link NOC:Principles of Digital Communications (2018) Lecture 37 - Detection : Performance of Non-Coherent Systems Systems
Link NOC:Principles of Digital Communications (2018) Lecture 38 - Detection : Fading Channel
Link NOC:Electric Vehicles - Part 1 Lecture 1 - Introduction - EV Historical Background
Link NOC:Electric Vehicles - Part 1 Lecture 2 - Introduction - EV Benefits of Using EVs
Link NOC:Electric Vehicles - Part 1 Lecture 3 - Introduction - EV Overview of types of EVs and its Challenges
Link NOC:Electric Vehicles - Part 1 Lecture 4 - Introduction - EV Motor Drive Technologies
Link NOC:Electric Vehicles - Part 1 Lecture 5 - Introduction - EV Energy Source Technologies
Link NOC:Electric Vehicles - Part 1 Lecture 6 - Introduction - EV Battery Charging Technologies
Link NOC:Electric Vehicles - Part 1 Lecture 7 - Introduction - EV Vehicle to Grid
Link NOC:Electric Vehicles - Part 1 Lecture 8 - Introduction - EV Subsystems and Configurations
Link NOC:Electric Vehicles - Part 1 Lecture 9 - Introduction - HEV Subsystems and Configurations
Link NOC:Electric Vehicles - Part 1 Lecture 10 - Introduction - HEV Subsystems and Modes of Operation
Link NOC:Electric Vehicles - Part 1 Lecture 11 - Vehicle Dynamics Introduction and tractive effort
Link NOC:Electric Vehicles - Part 1 Lecture 12 - Vehicle Dynamics and dynamic equation
Link NOC:Electric Vehicles - Part 1 Lecture 13 - Vehicle Dynamics simulation dynamic equation constant Fte
Link NOC:Electric Vehicles - Part 1 Lecture 14 - Vehicle Dynamics dynamic equation variable Fte
Link NOC:Electric Vehicles - Part 1 Lecture 15 - Vehicle Dynamics simulation dynamic equation variable Fte
Link NOC:Electric Vehicles - Part 1 Lecture 16 - Vehicle Dynamics Modelling and simulation in Simulink
Link NOC:Electric Vehicles - Part 1 Lecture 17 - Summary Electric Vehicles Part 1 Course
Link NOC:Electric Vehicles - Part 1 Lecture 18 - Basics of DC Motor Drive
Link NOC:Electric Vehicles - Part 1 Lecture 19 - Realization of DC Chopper
Link NOC:Electric Vehicles - Part 1 Lecture 20 - Open Loop Operation of Chopper Fed DC Motor Drive
Link NOC:Electric Vehicles - Part 1 Lecture 21 - Review of Control Theory
Link NOC:Electric Vehicles - Part 1 Lecture 22 - Modeling and Current Controller Design for Separately Excited DC Motor Drive
Link NOC:Electric Vehicles - Part 1 Lecture 23 - Speed Controller Design and Performance Evaluation of DC Motor Drive
Link NOC:Electric Vehicles - Part 1 Lecture 24 - Fundamentals of Three Phase Induction Motor
Link NOC:Electric Vehicles - Part 1 Lecture 25 - Equivalent Circuit and Torque-Speed Characteristics of Induction Motor
Link NOC:Electric Vehicles - Part 1 Lecture 26 - Starting and Speed Control of Induction Motor
Link NOC:Electric Vehicles - Part 1 Lecture 27 - Realisation of DC to AC Power Converter
Link NOC:Electric Vehicles - Part 1 Lecture 28 - Impact of Non-Sinusoidal Voltage on Induction Motor
Link NOC:Electric Vehicles - Part 1 Lecture 29 - Selective Harmonic Elimination and Optimal Pulse Width Modulation Techniques
Link NOC:Electric Vehicles - Part 1 Lecture 30 - Switching Energy Losses and Sine-Triangle PWM
Link NOC:Electric Vehicles - Part 1 Lecture 31 - Analysis of Sine-Triangle PWM
Link NOC:Electric Vehicles - Part 1 Lecture 32 - Simulation Studies on Open Loop Induction Motor Drive
Link NOC:Power Electronics Lecture 1 - Introduction to Power Electronics
Link NOC:Power Electronics Lecture 2 - Power Devices: Diodes and SCR
Link NOC:Power Electronics Lecture 3 - Power Devices: SCR, Triac, GTO and BJT
Link NOC:Power Electronics Lecture 4 - Power Devices: BJT, MOSFET and IGBT
Link NOC:Power Electronics Lecture 5 - Single-phase Uncontrolled Rectifiers
Link NOC:Power Electronics Lecture 6 - Single-phase Controlled Rectifiers - I
Link NOC:Power Electronics Lecture 7 - Single-phase Controlled Rectifiers - II
Link NOC:Power Electronics Lecture 8 - Three Phase Rectifiers - I
Link NOC:Power Electronics Lecture 9 - Numericals on devices and Single-phase Rectifiers
Link NOC:Power Electronics Lecture 10 - Three Phase Rectifiers - II
Link NOC:Power Electronics Lecture 11 - Dual Converter and Communication Overlap
Link NOC:Power Electronics Lecture 12 - Communication Overlap - II and AC-AC Converter-Introduction
Link NOC:Power Electronics Lecture 13 - Single-Phase and Three-Phase AC Voltage Controllers
Link NOC:Power Electronics Lecture 14 - Three-Phase AC Voltage Controllers and Cycloconverters
Link NOC:Power Electronics Lecture 15 - Non-Isolated DC-DC Converters - I
Link NOC:Power Electronics Lecture 16 - Non-Isolated DC-DC Converters - II
Link NOC:Power Electronics Lecture 17 - Isolated DC-DC Converters - I
Link NOC:Power Electronics Lecture 18 - Isolated DC-DC Converters - II and Cuk Converters
Link NOC:Power Electronics Lecture 19 - Voltage Source Inverters
Link NOC:Power Electronics Lecture 20 - VSI PWM Techniques - I
Link NOC:Power Electronics Lecture 21 - VSI PWM Techniques - II
Link NOC:Power Electronics Lecture 22 - SPWM and SVM Technique
Link NOC:Power Electronics Lecture 23 - Current Source Inverter
Link NOC:Power Electronics Lecture 24 - Power Electronics Applications
Link NOC:Electrical Machines Lecture 1 - Introduction to Electrical Machines - I
Link NOC:Electrical Machines Lecture 2 - Single-phase and Three-phase AC Circuits, Magnetic circuits
Link NOC:Electrical Machines Lecture 3 - Magnetic Circuit - II
Link NOC:Electrical Machines Lecture 4 - Magnetic Circuit - III
Link NOC:Electrical Machines Lecture 5 - Transformers - Introduction
Link NOC:Electrical Machines Lecture 6 - Transformers - Amp-Turn Balance, Ideal and practical transformers
Link NOC:Electrical Machines Lecture 7 - Transformer Equivalent circuit and Reducing leakage
Link NOC:Electrical Machines Lecture 8 - Transformer equivalent circuit parameter determination
Link NOC:Electrical Machines Lecture 9 - Transformers - Voltage regulation and efficiency
Link NOC:Electrical Machines Lecture 10 - Auto-transformers
Link NOC:Electrical Machines Lecture 11 - PU notation and Intoduction to Instrument transformers
Link NOC:Electrical Machines Lecture 12 - Instrument Transformers and All Day Efficiency
Link NOC:Electrical Machines Lecture 13 - Three Phase Transformers - I
Link NOC:Electrical Machines Lecture 14 - Three Phase Transformers - II
Link NOC:Electrical Machines Lecture 15 - Electromechanical Energy Conversion - I
Link NOC:Electrical Machines Lecture 16 - Electromechanical Energy Conversion - II
Link NOC:Electrical Machines Lecture 17 - Electromechanical Energy Conversion - III
Link NOC:Electrical Machines Lecture 18 - DC Machines-Introduction, Constructional Features
Link NOC:Electrical Machines Lecture 19 - DC Machines - EMF and Torque Equations and Generator Operation
Link NOC:Electrical Machines Lecture 20 - DC Machines - OCC and Load Charactristics Classification
Link NOC:Electrical Machines Lecture 21 - DC Machines - Armature Reaction
Link NOC:Electrical Machines Lecture 22 - DC Machines - Voltage Build-up and Load Characteristics
Link NOC:Electrical Machines Lecture 23 - DC Generator Characteristics and Introduction to DC Motors
Link NOC:Electrical Machines Lecture 24 - DC Motors: Basics and Speed-Torque Relationship
Link NOC:Electrical Machines Lecture 25 - DC Motor: Speed Control (Shunt and Separately Exicited Motor)
Link NOC:Electrical Machines Lecture 26 - DC Motor: Speed Control (Series and Compound Motor)
Link NOC:Electrical Machines Lecture 27 - DC Machine: Starting and Braking
Link NOC:Electrical Machines Lecture 28 - DC Machine: Comutation
Link NOC:Electrical Machines Lecture 29 - 3 Phase Induction Machine: Constructional Features and Principle of Operation
Link NOC:Electrical Machines Lecture 30 - 3 Phase Induction Machine: Equivalent Circuit
Link NOC:Electrical Machines Lecture 31 - 3 Phase Induction Machine: Speed Torque Characteristics
Link NOC:Electrical Machines Lecture 32 - Testing of Induction Motor: OC and SC Test
Link NOC:Electrical Machines Lecture 33 - 3 Phase Induction Machine: Starting Methods
Link NOC:Electrical Machines Lecture 34 - Synchronous Machines: Introduction
Link NOC:Electrical Machines Lecture 35 - Synchronous Machines: Constructional Features
Link NOC:Electrical Machines Lecture 36 - Numerical Session
Link NOC:Electrical Machines Lecture 37 - Synchronization of Alternators
Link NOC:Electrical Machines Lecture 38 - Synchronous Machines: Equivalent Circuit and Phasor Diagram
Link NOC:Electrical Machines Lecture 39 - Synchronous Machines: OC and SC Test
Link NOC:Electrical Machines Lecture 40 - Synchronous Machines: Power Angle Relationship, V and Inverted V Curves
Link NOC:Electrical Machines Lecture 41 - Single Phase Induction Motors
Link Special Electromechanical Systems Lecture 1 - Special Electromechanical Systems (Introduction)
Link Special Electromechanical Systems Lecture 2 - Classification of Machines
Link Special Electromechanical Systems Lecture 3 - Single and Two-Phase Motors
Link Special Electromechanical Systems Lecture 4 - Single-Phase Induction Motors-Analysis
Link Special Electromechanical Systems Lecture 5 - Starting of Single-Phase Induction Motors
Link Special Electromechanical Systems Lecture 6 - Single-Phase Induction Motors Analysis
Link Special Electromechanical Systems Lecture 7 - Induction Motors Analysis by Symmetrical Components
Link Special Electromechanical Systems Lecture 8 - Modelling of 1-Phase Induction Motor (One and Two Windings)
Link Special Electromechanical Systems Lecture 9 - Asymmetrical Induction Motor Generalized Rotating Field Theory
Link Special Electromechanical Systems Lecture 10 - Generalized Rotating Field Theory (Continued...)
Link Special Electromechanical Systems Lecture 11 - Generalized Rotating Field Theory (Continued...)
Link Special Electromechanical Systems Lecture 12 - Generalized Rotating Field Theory (Continued...)
Link Special Electromechanical Systems Lecture 13 - Analysis of Asymmetrical Machine by Generalized Rotating Field Theory
Link Special Electromechanical Systems Lecture 14 - Analysis of Asymmetrical Machine
Link Special Electromechanical Systems Lecture 15 - Analysis of Asymmetrical Induction Machine
Link Special Electromechanical Systems Lecture 16 - Generalised Rotating-Field Theory of Wound Rotor Ind. Machine Having Asymmetry in Stator and Rotor Windings
Link Special Electromechanical Systems Lecture 17 - Generalised Rotating-Field Theory of Wound Rotor Ind. Machine Having Asymmetry in Stator and Rotor Windings (Continued...)
Link Special Electromechanical Systems Lecture 18 - Testing of Small Electrical Machines
Link Special Electromechanical Systems Lecture 19 - Testing of 1-Phase Induction Motors
Link Special Electromechanical Systems Lecture 20 - Variable Reluctance (VR) Motors
Link Special Electromechanical Systems Lecture 21 - Switched Reluctance Motor (Continued...)
Link Special Electromechanical Systems Lecture 22 - Switched Reluctance Motor (Continued...)
Link Special Electromechanical Systems Lecture 23 - Switched Reluctance Motor (Continued...)
Link Special Electromechanical Systems Lecture 24 - Stepper Motors
Link Special Electromechanical Systems Lecture 25 - Stepper Motors (Continued...)
Link Special Electromechanical Systems Lecture 26 - Induction Generators
Link Special Electromechanical Systems Lecture 27 - Induction Generators (Continued...)
Link Special Electromechanical Systems Lecture 28 - Doubly Fed Induction Generators
Link Special Electromechanical Systems Lecture 29 - Self Excited Induction Generators
Link Special Electromechanical Systems Lecture 30 - Self Excited Induction Generators (Continued...)
Link Special Electromechanical Systems Lecture 31 - Permanent Magnet Machines
Link Special Electromechanical Systems Lecture 32 - Squareware Permanent Magnet Brushless Motor Drive
Link Special Electromechanical Systems Lecture 33 - Sine Wave Permanent Magnet Brushless Motor Drives
Link Special Electromechanical Systems Lecture 34 - Permanent Magnet Synchronous Motors
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 1 - Basic Understanding of Converter (Introduction to Power Converters)
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 2 - Basic Understanding of Converter (Half Bridge and Full Bridge Circuit Operation)
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 3 - Basic Understanding of Converter (Sinusoidal Pulse width Modulation and Three Phase Circuit)
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 4 - Basic Understanding of Converter (Harmonics in Sinusoidal PWM)
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 5 - Third harmonic addition in Sine PWM
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 6 - Introduction to Space Vectors
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 7 - Space Vector PWM - Timing Calculation
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 8 - Space Vector PWM - Switching Sequence
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 9 - Space Vector PWM - Using Carriers
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 10 - Basic Introduction to Power Devices
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 11 - Introduction to Multilevel Converters
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 12 - Cascaded H-bridge Multilevel Converters
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 13 - Output Voltage Waveform Synthesis in CHB Converter and Basic of Asymmetrical CHB Converters
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 14 - Cascaded H-Bridge Converters: Phase-Shifted PWM
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 15 - Cascaded H-Bridge Converters: Level-Shifted PWM
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 16 - Fault Tolerant Operation of Cascaded H-Bridge Converter - Part I
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 17 - Fault Tolerant Operation of Cascaded H-Bridge Converter - Part II
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 18 - Modular Multilevel Converter - Topology and Operation
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 19 - Modular Multilevel Converter - Arm and Cell Voltage Ratings
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 20 - Modular Multilevel Converter - Arm Currents
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 21 - Modular Multilevel Converter - Arm Energy Balancing
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 22 - Modular Multilevel Converter - Different Circuit Topologies
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 23 - Modular Multilevel Converter - PWM Technique and Capacitor Voltage Balancing
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 24 - Modular Multilevel Converter - Fault Tolerant Operation and Commercial Production
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 25 - Design of Components in MMC
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 26 - Neutral Point Clamped Converter - Circuit Topology - Part I
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 27 - Neutral Point Clamped Converter - Circuit Topology - Part II
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 28 - Neutral Point Clamped Converter - Space Vector Diagram
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 29 - Neutral Point Clamped Converter - Space Vector PWM
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 30 - NPC - Sinusoidal PWM and Space Vector PWM using Single Carrier Strategy
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 31 - Neutral Point Clamped Converter - Mid-point Voltage Fluctuations
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 32 - Neutral Point Clamped Converter - Capacitor Voltage Balancing
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 33 - Neutral Point Clamped Converter - Another Strategy of Capacitor Voltage Balancing
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 34 - Other Topologies of NPC Converters - Higher Level NPC, TNPC and Active NPC
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 35 - Multipulse Transformer - Part I
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 36 - Multipulse Transformer - Part II
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 37 - A Case Study on MMC and CHB
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 38 - Basics of Gate Driver Circuits
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 39 - Gate Driver Circuits - Turn-on and Turn-off Process
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 40 - Gate Driver Circuits - Features of Gate Drivers and Basics of Bootstrap Functionality
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 41 - Condition Monitoring of Converters
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 42 - Other Converter Topologies
Link NOC:High Power Multilevel Converters - Analysis, Design and Operational Issues Lecture 43 - Summary of the Course
Link NOC:Introduction to Embedded System Design Lecture 1 - Introduction
Link NOC:Introduction to Embedded System Design Lecture 2 - Introduction continued with Project demos
Link NOC:Introduction to Embedded System Design Lecture 3 - Modular Approach to ESD
Link NOC:Introduction to Embedded System Design Lecture 4 - Modular Approach to ESD (Continued...)
Link NOC:Introduction to Embedded System Design Lecture 5 - Salient Features of Modern Microcontrollers
Link NOC:Introduction to Embedded System Design Lecture 6 - Salient Features of Modern Microcontrollers (Continued...)
Link NOC:Introduction to Embedded System Design Lecture 7 - Elements of Microcontroller Ecosystem
Link NOC:Introduction to Embedded System Design Lecture 8 - Elements of Microcontroller Ecosystem (Continued...)
Link NOC:Introduction to Embedded System Design Lecture 9 - Power Supply for Embedded Systems
Link NOC:Introduction to Embedded System Design Lecture 10 - Power Supply for Embedded Systems (Continued...)
Link NOC:Introduction to Embedded System Design Lecture 11 - Introduction to MSP430
Link NOC:Introduction to Embedded System Design Lecture 12 - MSP430 Architecture
Link NOC:Introduction to Embedded System Design Lecture 13 - MSP430 Architecture- (Continued...) And Introduction to Lunchbox
Link NOC:Introduction to Embedded System Design Lecture 14 - Programming Methods for MSP430
Link NOC:Introduction to Embedded System Design Lecture 15 - Physical Interfacing - 1
Link NOC:Introduction to Embedded System Design Lecture 16 - Physical Interfacing - 2
Link NOC:Introduction to Embedded System Design Lecture 17 - Physical Interfacing - 3
Link NOC:Introduction to Embedded System Design Lecture 18 - Physical Interfacing - 4
Link NOC:Introduction to Embedded System Design Lecture 19 - Physical Interfacing - 5
Link NOC:Introduction to Embedded System Design Lecture 20 - Physical Interfacing - 6
Link NOC:Introduction to Embedded System Design Lecture 21 - GIT, CCS Installation and Embedded C
Link NOC:Introduction to Embedded System Design Lecture 22 - MSP430 Digital I/O
Link NOC:Introduction to Embedded System Design Lecture 23 - MSP430 Digital I/O: Switch Interfacing
Link NOC:Introduction to Embedded System Design Lecture 24 - MSP430 Clock System and Reset
Link NOC:Introduction to Embedded System Design Lecture 25 - Interrupts in MSP430
Link NOC:Introduction to Embedded System Design Lecture 26 - Interrupts in MSP430 (Continued...)
Link NOC:Introduction to Embedded System Design Lecture 27 - Interfacing Seven Segment Displays with MSP430; Low Power Modes in MSP430
Link NOC:Introduction to Embedded System Design Lecture 28 - Interfacing Liquid Crystal Displays (LCD)
Link NOC:Introduction to Embedded System Design Lecture 29 - MSP430 Timer Module: Introduction and Timer Capture
Link NOC:Introduction to Embedded System Design Lecture 30 - Pulse Width Modulation, PWM using Timer Capture
Link NOC:Introduction to Embedded System Design Lecture 31 - Analog to Digital Converter in the MSP430
Link NOC:Introduction to Embedded System Design Lecture 32 - ADC and DAC using R2R Ladder and Random number generation using LFSR
Link NOC:Introduction to Embedded System Design Lecture 33 - Serial Communication Protocols, USCI Module in MSP430
Link NOC:Introduction to Embedded System Design Lecture 34 - MSP430 Timer in Capture Mode
Link NOC:Introduction to Embedded System Design Lecture 35 - Coding Ninja
Link NOC:Introduction to Embedded System Design Lecture 36 - Building an Electronics Project
Link NOC:Introduction to Embedded System Design Lecture 37 - Circuit Prototyping Techniques
Link NOC:Introduction to Embedded System Design Lecture 38 - Single Purpose Computers
Link NOC:Introduction to Embedded System Design Lecture 39 - Single Purpose Computers (Continued...)
Link NOC:Introduction to Embedded System Design Lecture 40 - Recap of Course Coverage and Project Demonstration from Concept to Final
Link NOC:Power Quality Lecture 1 - Power Quality - An Introduction
Link NOC:Power Quality Lecture 2 - Power Quality Standards and Monitoring
Link NOC:Power Quality Lecture 3 - Power Quality Standards and Monitoring (Continued...)
Link NOC:Power Quality Lecture 4 - Passive Shunt and Series Compensations
Link NOC:Power Quality Lecture 5 - Passive Shunt and Series Compensations (Continued...)
Link NOC:Power Quality Lecture 6 - Passive Shunt and Series Compensations (Continued...)
Link NOC:Power Quality Lecture 7 - Active Shunt Compensation
Link NOC:Power Quality Lecture 8 - Active Shunt Compensation (Continued...)
Link NOC:Power Quality Lecture 9 - Active Shunt Compensation (Continued...)
Link NOC:Power Quality Lecture 10 - Active Series Compensation
Link NOC:Power Quality Lecture 11 - Active Series Compensation (Continued...)
Link NOC:Power Quality Lecture 12 - Unified Power Quality Compensators
Link NOC:Power Quality Lecture 13 - Unified Power Quality Compensators (Continued...)
Link NOC:Power Quality Lecture 14 - Unified Power Quality Compensators (Continued...)
Link NOC:Power Quality Lecture 15 - Loads Which Cause Power Quality Problems
Link NOC:Power Quality Lecture 16 - Loads Which Cause Power Quality Problems (Continued...)
Link NOC:Power Quality Lecture 17 - Passive Power Filters
Link NOC:Power Quality Lecture 18 - Passive Power Filters (Continued...)
Link NOC:Power Quality Lecture 19 - Passive Power Filters (Continued...)
Link NOC:Power Quality Lecture 20 - Shunt Active Power Filters
Link NOC:Power Quality Lecture 21 - Shunt Active Power Filters (Continued...)
Link NOC:Power Quality Lecture 22 - Shunt Active Power Filters (Continued...)
Link NOC:Power Quality Lecture 23 - Active Series Power Filters
Link NOC:Power Quality Lecture 24 - Active Series Power Filters (Continued...)
Link NOC:Power Quality Lecture 25 - Active Series Power Filters (Continued...)
Link NOC:Power Quality Lecture 26 - Hybrid Power Filters
Link NOC:Power Quality Lecture 27 - Hybrid Power Filters (Continued...)
Link NOC:Power Quality Lecture 28 - Hybrid Power Filters (Continued...)
Link NOC:Power Quality Lecture 29 - AC-DC Converters That Cause Power Quality
Link NOC:Power Quality Lecture 30 - Improved Power Quality Converters - AC-DC Boost Converters
Link NOC:Power Quality Lecture 31 - Improved Power Quality Converters - AC-DC Boost Converters (Continued...)
Link NOC:Power Quality Lecture 32 - Improved Power Quality Converters - AC-DC Buck Converters
Link NOC:Power Quality Lecture 33 - Improved Power Quality Converters - AC-DC Buck-Boost Converters
Link NOC:Power Quality Lecture 34 - Improved Power Quality Converters - AC-DC Buck-Boost Converters (Continued...)
Link NOC:Power Quality Lecture 35 - Improved Power Quality Converters - AC-DC Buck-Boost Converters (Continued...)
Link NOC:Power Quality Lecture 36 - Three Phase AC-DC Improved Power Quality Converters
Link NOC:Power Quality Lecture 37 - Multipulse Converters
Link NOC:Power Quality Lecture 38 - Multipulse Converters (Continued...)
Link NOC:Power Quality Lecture 39 - Multipulse Converters (Continued...)
Link NOC:Power Quality Lecture 40 - Power Quality Improvement in Solar Energy Conversion System
Link NOC:Power Quality Lecture 41 - Power Quality Improvement in Solar Energy Conversion System (Continued...)
Link NOC:Power Quality Lecture 42 - Power Quality Improvement in Wind Energy Conversion System
Link NOC:Power Quality Lecture 43 - Power Quality Improvement in Diesel Generator Set Based Power Supply System
Link NOC:Power Quality Lecture 44 - Power Quality Improvement in Diesel Generator Set Based Power Supply System (Continued...)
Link NOC:Power Quality Lecture 45 - Power Quality Improvement in Distributed Generation Sources Based Microgrids
Link NOC:Introduction to Electrical Engineering Lecture 1
Link NOC:Introduction to Electrical Engineering Lecture 2
Link NOC:Introduction to Electrical Engineering Lecture 3
Link NOC:Introduction to Electrical Engineering Lecture 4
Link NOC:Introduction to Electrical Engineering Lecture 5
Link NOC:Introduction to Electrical Engineering Lecture 6
Link NOC:Introduction to Electrical Engineering Lecture 7
Link NOC:Introduction to Electrical Engineering Lecture 8
Link NOC:Introduction to Electrical Engineering Lecture 9
Link NOC:Introduction to Electrical Engineering Lecture 10
Link NOC:Introduction to Electrical Engineering Lecture 11
Link NOC:Introduction to Electrical Engineering Lecture 12
Link NOC:Introduction to Electrical Engineering Lecture 13
Link NOC:Introduction to Electrical Engineering Lecture 14
Link NOC:Introduction to Electrical Engineering Lecture 15
Link NOC:Introduction to Electrical Engineering Lecture 16
Link NOC:Introduction to Electrical Engineering Lecture 17
Link NOC:Introduction to Electrical Engineering Lecture 18
Link NOC:Introduction to Electrical Engineering Lecture 19
Link NOC:Introduction to Electrical Engineering Lecture 20
Link NOC:Introduction to Electrical Engineering Lecture 21
Link NOC:Introduction to Electrical Engineering Lecture 22
Link NOC:Introduction to Electrical Engineering Lecture 23
Link NOC:Introduction to Electrical Engineering Lecture 24
Link NOC:Introduction to Electrical Engineering Lecture 25
Link NOC:Introduction to Electrical Engineering Lecture 26
Link NOC:Introduction to Electrical Engineering Lecture 27
Link NOC:Introduction to Electrical Engineering Lecture 28
Link NOC:Introduction to Electrical Engineering Lecture 29
Link NOC:Introduction to Electrical Engineering Lecture 30
Link NOC:Introduction to Electrical Engineering Lecture 31
Link NOC:Introduction to Electrical Engineering Lecture 32
Link NOC:Introduction to Electrical Engineering Lecture 33
Link NOC:Introduction to Electrical Engineering Lecture 34
Link NOC:Introduction to Electrical Engineering Lecture 35
Link NOC:Introduction to Electrical Engineering Lecture 36
Link NOC:Introduction to Electrical Engineering Lecture 37
Link NOC:Introduction to Electrical Engineering Lecture 38
Link NOC:Introduction to Electrical Engineering Lecture 39
Link NOC:Introduction to Electrical Engineering Lecture 40
Link NOC:Introduction to Electrical Engineering Lecture 41
Link NOC:Introduction to Electrical Engineering Lecture 42
Link NOC:Transducers for Instrumentation Lecture 1
Link NOC:Transducers for Instrumentation Lecture 2
Link NOC:Transducers for Instrumentation Lecture 3
Link NOC:Transducers for Instrumentation Lecture 4
Link NOC:Transducers for Instrumentation Lecture 5
Link NOC:Transducers for Instrumentation Lecture 6
Link NOC:Transducers for Instrumentation Lecture 7
Link NOC:Transducers for Instrumentation Lecture 8
Link NOC:Transducers for Instrumentation Lecture 9
Link NOC:Transducers for Instrumentation Lecture 10
Link NOC:Transducers for Instrumentation Lecture 11
Link NOC:Transducers for Instrumentation Lecture 12
Link NOC:Transducers for Instrumentation Lecture 13
Link NOC:Transducers for Instrumentation Lecture 14
Link NOC:Transducers for Instrumentation Lecture 15
Link NOC:Transducers for Instrumentation Lecture 16
Link NOC:Transducers for Instrumentation Lecture 17
Link NOC:Transducers for Instrumentation Lecture 18
Link NOC:Transducers for Instrumentation Lecture 19
Link NOC:Transducers for Instrumentation Lecture 20
Link NOC:Transducers for Instrumentation Lecture 21
Link NOC:Transducers for Instrumentation Lecture 22
Link NOC:Transducers for Instrumentation Lecture 23
Link NOC:Transducers for Instrumentation Lecture 24
Link NOC:Transducers for Instrumentation Lecture 25
Link NOC:Transducers for Instrumentation Lecture 26
Link NOC:Transducers for Instrumentation Lecture 27
Link NOC:Transducers for Instrumentation Lecture 28
Link NOC:Transducers for Instrumentation Lecture 29
Link NOC:Transducers for Instrumentation Lecture 30
Link NOC:Transducers for Instrumentation Lecture 31
Link NOC:Transducers for Instrumentation Lecture 32
Link NOC:Transducers for Instrumentation Lecture 33
Link NOC:Transducers for Instrumentation Lecture 34
Link NOC:Transducers for Instrumentation Lecture 35
Link NOC:Transducers for Instrumentation Lecture 36
Link NOC:Computer-Aided Design of Electrical Machines Lecture 1 - Course Outline and Introduction
Link NOC:Computer-Aided Design of Electrical Machines Lecture 2 - Fundamental - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 3 - Equivalent Circuit Approach to Design
Link NOC:Computer-Aided Design of Electrical Machines Lecture 4 - Transformer Design - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 5 - Transformer Design - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 6 - Transformer Design - III
Link NOC:Computer-Aided Design of Electrical Machines Lecture 7 - Transformer Design - IV
Link NOC:Computer-Aided Design of Electrical Machines Lecture 8 - Windings in Electrical Machines
Link NOC:Computer-Aided Design of Electrical Machines Lecture 9 - Design of DC Machine - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 10 - Design of DC Machine - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 11 - Design of DC Machine - III
Link NOC:Computer-Aided Design of Electrical Machines Lecture 12 - Design of Three-Phase Induction Motors - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 13 - Design of Three-Phase Induction Motors - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 14 - Design of Three-Phase Induction Motors - III
Link NOC:Computer-Aided Design of Electrical Machines Lecture 15 - Design of Three-Phase Induction Motors - IV
Link NOC:Computer-Aided Design of Electrical Machines Lecture 16 - Design of Single-Phase Induction Machine - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 17 - Design of Single-Phase Induction Machine - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 18 - Design of Single-Phase Induction Machine - III
Link NOC:Computer-Aided Design of Electrical Machines Lecture 19 - Design of Three-Phase Synchronous Machines - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 20 - Design of Three-Phase Synchronous Machines - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 21 - Design of Three-Phase Synchronous Machines - III
Link NOC:Computer-Aided Design of Electrical Machines Lecture 22 - Design of Three-Phase Synchronous Machines - IV
Link NOC:Computer-Aided Design of Electrical Machines Lecture 23 - Design of Synchronous Reluctance Machines - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 24 - Design of Synchronous Reluctance Machines - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 25 - Design of Synchronous Reluctance Machines - III
Link NOC:Computer-Aided Design of Electrical Machines Lecture 26 - Design of Brushless PM Machines - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 27 - Design of Brushless PM Machines - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 28 - Design of Brushless PM Machines - III
Link NOC:Computer-Aided Design of Electrical Machines Lecture 29 - Design of Brushless PM Machines - IV
Link NOC:Computer-Aided Design of Electrical Machines Lecture 30 - Design of Brushless PM Machines - V
Link NOC:Computer-Aided Design of Electrical Machines Lecture 31 - Design of Switched Reluctance Machines - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 32 - Design of Switched Reluctance Machines - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 33 - Design of Switched Reluctance Machines - III
Link NOC:Computer-Aided Design of Electrical Machines Lecture 34 - Design of Stepper Machines - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 35 - Design of Stepper Machines - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 36 - Design of Axial Flux Machines - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 37 - Design of Axial Flux Machines - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 38 - Computer Aided Design and Analysis Method - I
Link NOC:Computer-Aided Design of Electrical Machines Lecture 39 - Computer Aided Design and Analysis Method - II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 40 - Case Studies and Tutorials - I and II
Link NOC:Computer-Aided Design of Electrical Machines Lecture 41 - Tutorial-III : Determination of Transformer Operating Point
Link NOC:Computer-Aided Design of Electrical Machines Lecture 42 - Tutorial-IV
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 1 - Introduction
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 2 - Passive Circuit Elements: R, L and C
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 3 - Resistor color coding, Surface mount capacitors and inductors on PCBs
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 4 - Active Circuit Elements: MOSFET, BJTs
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 5 - Network Analysis: Kirchoff's Laws
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 6 - Network Theorems: Thevenin, Norton, Maximum Power Transfer etc
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 7 - Circuit Simulations using SPICE : Operating point analysis
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 8 - DC Simulations and Importing Third-Party Models
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 9 - Small-Signal Simulations, Transient Simulations
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 10 - PCB Substrate and layers
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 11 - Interconnect design
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 12 - CMOS inverter basics
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 13 - CMOS inverter design
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 14 - Combinational Circuit Design - Part 1
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 15 - Combinational Circuit Design - Part 2
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 16 - Dynamic Logic Circuit Design
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 17 - Sequential Logic Circuit Design
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 18 - Digital Design : Boolean Algebra
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 19 - Logic Families, Component Datasheets
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 20 - TTL/CMOS logic Interfacing Constraints
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 21 - Hardware Description Languages : VHDL and Verilog
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 22 - Introduction to Verilog Simulations Software
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 23 - Combinational Circuit Simulation using iVerilog
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 24 - Adders, Multiplexer Simulation using iVerilog
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 25 - High-Speed PCBs
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 26 - Signal Integrity in PCBs
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 27 - Signal Cross-Talk, Skews and Jitter in PCBs
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 28 - KiCad Software Workflow
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 29 - KiCad Design Modules
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 30 - KiCad Schematic Design Steps
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 31 - KiCad PCB Design Steps
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 32 - KiCad Custom Symbol and Footprints Creation
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 33 - KiCad Example : PCB design using OpAmp IC
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 34 - KiCad Example : PCB design using 555 Timer IC
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 35 - RF PCB Design Guidelines
Link NOC:Electronic Systems Design: Hands-on Circuits and PCB Design with CAD Software Lecture 36 - RF PCB Example
Link Advanced Control Systems Lecture 1 - Introduction
Link Advanced Control Systems Lecture 2 - Control structures and performance measures
Link Advanced Control Systems Lecture 3 - Time and frequency domain performance measures
Link Advanced Control Systems Lecture 4 - Design of controller
Link Advanced Control Systems Lecture 5 - Design of controller for SISO system
Link Advanced Control Systems Lecture 6 - Controller design for TITO processes
Link Advanced Control Systems Lecture 7 - Limitations of PID controllers
Link Advanced Control Systems Lecture 8 - PI-PD controller for SISO system
Link Advanced Control Systems Lecture 9 - PID-P controller for Two Input Two Output system
Link Advanced Control Systems Lecture 10 - Effects of measurement noise and load
Link Advanced Control Systems Lecture 11 - Identification of dynamic models of plants
Link Advanced Control Systems Lecture 12 - Relay control system for identification
Link Advanced Control Systems Lecture 13 - Off-line identification of process dynamics
Link Advanced Control Systems Lecture 14 - On-line identification of plant dynamics
Link Advanced Control Systems Lecture 15 - State space based identification
Link Advanced Control Systems Lecture 16 - State space analysis of systems
Link Advanced Control Systems Lecture 17 - State space based identification of systems - 1
Link Advanced Control Systems Lecture 18 - State space based identification of systems - 2
Link Advanced Control Systems Lecture 19 - Identification of simple systems
Link Advanced Control Systems Lecture 20 - Identification of FOPDT model
Link Advanced Control Systems Lecture 21 - Identification of second order plus dead time model
Link Advanced Control Systems Lecture 22 - Identification of SOPDT model
Link Advanced Control Systems Lecture 23 - Steady state gain from asymmetrical relay test
Link Advanced Control Systems Lecture 24 - Identification of SOPDT model with pole multiplicity
Link Advanced Control Systems Lecture 25 - Existence of limit cycle for unstable system
Link Advanced Control Systems Lecture 26 - Identification procedures
Link Advanced Control Systems Lecture 27 - Identification of underdamped systems
Link Advanced Control Systems Lecture 28 - Off-line identification of TITO systems
Link Advanced Control Systems Lecture 29 - On-line identification of TITO systems
Link Advanced Control Systems Lecture 30 - Review of time domain based identification
Link Advanced Control Systems Lecture 31 - DF based analytical expressions for on-line identification
Link Advanced Control Systems Lecture 32 - Model parameter accuracy and sensitivity
Link Advanced Control Systems Lecture 33 - Improved identification using Fourier series and wavelet transform
Link Advanced Control Systems Lecture 34 - Reviews of DF based identification
Link Advanced Control Systems Lecture 35 - Advanced Smith predictor controller
Link Advanced Control Systems Lecture 36 - Design of controllers for the advanced Smith predictor
Link Advanced Control Systems Lecture 37 - Model-free controller design
Link Advanced Control Systems Lecture 38 - Model Based PID controller Design - I
Link Advanced Control Systems Lecture 39 - Model Based PI-PD controller Design - II
Link Advanced Control Systems Lecture 40 - Tuning of reconfigurable PID controllers
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 1 - Introduction to Digital VLSI Design Flow
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 2 - High-level Synthesis (HLS) flow with an example
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 3 - Automation of High-level Synthesis Steps
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 4 - Impact of Coding Style on HLS Results
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 5 - Impact of Compiler Optimizations on HLS Results
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 6 - RTL Optimizations for Timing
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 7 - Retiming
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 8 - RTL Optimizations for Area
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 9 - RTL Optimizations for Power
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 10 - High Level Synthesis: Introduction to Logic Synthesis
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 11 - Overview of FPGA Technology Mapping
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 12 - Introduction to Physical Synthesis
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 13 - Introduction to Digital VLSI Testing - I
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 14 - Introduction to Digital VLSI Testing - II
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 15 - Optimization Techniques for ATPG - Part I
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 16 - Optimization Techniques for ATPG - Part II
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 17 - Optimization Techniques for Design for Testability
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 18 - High-level fault modeling and RTL level Testing
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 19 - LTL/CTL based Verification
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 20 - Verification of Large Scale Systems
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 21 - BDD based verification
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 22 - Verification: ADD based verification, HDD based verification
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 23 - Verification: Symbolic Model Checking
Link NOC:Optimization Techniques for Digital VLSI Design Lecture 24 - Verification: Bounded Model Checking
Link NOC:Advanced Topics in Probability and Random Processes Lecture 1 - Probability Basics
Link NOC:Advanced Topics in Probability and Random Processes Lecture 2 - Random Variable - I
Link NOC:Advanced Topics in Probability and Random Processes Lecture 3 - Random Variable - II
Link NOC:Advanced Topics in Probability and Random Processes Lecture 4 - Random Vectors and Random Processes
Link NOC:Advanced Topics in Probability and Random Processes Lecture 5 - Infinite Sequence of Events - I
Link NOC:Advanced Topics in Probability and Random Processes Lecture 6 - Infinite Sequence of Events - II
Link NOC:Advanced Topics in Probability and Random Processes Lecture 7 - Convergence of Sequence of Random Variables
Link NOC:Advanced Topics in Probability and Random Processes Lecture 8 - Weak Convergence - I
Link NOC:Advanced Topics in Probability and Random Processes Lecture 9 - Weak Convergence - II
Link NOC:Advanced Topics in Probability and Random Processes Lecture 10 - Laws of Large Numbers
Link NOC:Advanced Topics in Probability and Random Processes Lecture 11 - Central Limit Theorem
Link NOC:Advanced Topics in Probability and Random Processes Lecture 12 - Large Deviation Theory
Link NOC:Advanced Topics in Probability and Random Processes Lecture 13 - Crammer's Theorem for Large Deviation
Link NOC:Advanced Topics in Probability and Random Processes Lecture 14 - Introduction to Markov Processes
Link NOC:Advanced Topics in Probability and Random Processes Lecture 15 - Discrete Time Markov Chain - 1
Link NOC:Advanced Topics in Probability and Random Processes Lecture 16 - Discrete Time Markov Chain - 2
Link NOC:Advanced Topics in Probability and Random Processes Lecture 17 - Discrete Time Markov Chain - 3
Link NOC:Advanced Topics in Probability and Random Processes Lecture 18 - Discrete Time Markov Chain - 4
Link NOC:Advanced Topics in Probability and Random Processes Lecture 19 - Discrete Time Markov Chain - 5
Link NOC:Advanced Topics in Probability and Random Processes Lecture 20 - Continuous Time Markov Chain - 1
Link NOC:Advanced Topics in Probability and Random Processes Lecture 21 - Continuous Time Markov Chain - 2
Link NOC:Advanced Topics in Probability and Random Processes Lecture 22 - Continuous Time Markov Chain - 3
Link NOC:Advanced Topics in Probability and Random Processes Lecture 23 - Martingale Process - 1
Link NOC:Advanced Topics in Probability and Random Processes Lecture 24 - Martingale Process - 2
Link NOC:Microwave Engineering Lecture 1 - Introduction to Microwave Engineering
Link NOC:Microwave Engineering Lecture 2 - Introduction to Transmission Line Theory
Link NOC:Microwave Engineering Lecture 3 - Lossy Transmission Line
Link NOC:Microwave Engineering Lecture 4 - Smith Chart
Link NOC:Microwave Engineering Lecture 5 - Introduction to Waveguides and Rectangular Waveguide
Link NOC:Microwave Engineering Lecture 6 - Circular Waveguide
Link NOC:Microwave Engineering Lecture 7 - Attenuation Waveguide
Link NOC:Microwave Engineering Lecture 8 - N-port microwave networks and equivalent voltages and currents
Link NOC:Microwave Engineering Lecture 9 - Scattering Matrix (S-Parameters) Part-1
Link NOC:Microwave Engineering Lecture 10 - Scattering Matrix (S-parameters) Part-2 and Transmission Matrix (ABCD-Parameters)
Link NOC:Microwave Engineering Lecture 11 - Impedance Matching Using L-Section and Series Stub Networks
Link NOC:Microwave Engineering Lecture 12 - Impedance Matching Using Shunt Stub, Double Stub and Quarter wave Transformer
Link NOC:Microwave Engineering Lecture 13 - Multisection Matching Networks and Tapered Lines
Link NOC:Microwave Engineering Lecture 14 - Series and Parallel RLC Resonators
Link NOC:Microwave Engineering Lecture 15 - Transmission Line Resonators
Link NOC:Microwave Engineering Lecture 16 - Waveguide Resonators
Link NOC:Microwave Engineering Lecture 17 - Introduction to power dividers
Link NOC:Microwave Engineering Lecture 18 - Directional couplers
Link NOC:Microwave Engineering Lecture 19 - Microwave Filters - Part 1
Link NOC:Microwave Engineering Lecture 20 - Microwave Filters - Part 2
Link NOC:Microwave Engineering Lecture 21 - Characteristics of Microwave BJT and FET
Link NOC:Microwave Engineering Lecture 22 - PIN Diodes and Control Circuits
Link NOC:Microwave Engineering Lecture 23 - Schottky Diodes and Detectors and Tunnel Diodes
Link NOC:Microwave Engineering Lecture 24 - Gunn Diodes, IMPATT Diodes and Varactor Diodes
Link NOC:Microwave Engineering Lecture 25 - Two-Port Power Gain and Stability
Link NOC:Microwave Engineering Lecture 26 - Design of single stage transistor amplifier (for maximum gain, specified gain, low noise)
Link NOC:Microwave Engineering Lecture 27 - RF oscillator
Link NOC:Microwave Engineering Lecture 28 - Limitations of Conventional Tubes at Microwave Ranges
Link NOC:Microwave Engineering Lecture 29 - Introduction to Klystron
Link NOC:Microwave Engineering Lecture 30 - Reflex Klystron, Magnetron and TWT
Link NOC:Microwave Engineering Lecture 31 - Ferrite Devices
Link NOC:Microwave Engineering Lecture 32 - Planar transmission lines for MIC
Link NOC:Microwave Engineering Lecture 33 - Lumped elements for MIC
Link NOC:Microwave Engineering Lecture 34 - Lumped inductor, HMIC and MMIC
Link NOC:Microwave Engineering Lecture 35 - Overview of Radar
Link NOC:Microwave Engineering Lecture 36 - Cellular Communication
Link NOC:Microwave Engineering Lecture 37 - Satellite Communication and Applications of Microwave
Link NOC:Microprocessors and Interfacing Lecture 1 - Microprocessor Operations
Link NOC:Microprocessors and Interfacing Lecture 2 - 8086 Flags
Link NOC:Microprocessors and Interfacing Lecture 3 - Functional Diagram of 8086
Link NOC:Microprocessors and Interfacing Lecture 4 - 8086 Common and Minimum Mode Signals
Link NOC:Microprocessors and Interfacing Lecture 5 - 8086 Maximum Mode Signals
Link NOC:Microprocessors and Interfacing Lecture 6 - 8086 Data Transfer Instructions
Link NOC:Microprocessors and Interfacing Lecture 7 - 8086 Arithmetic Instructions - I
Link NOC:Microprocessors and Interfacing Lecture 8 - 8086 Arithmetic Instructions - II
Link NOC:Microprocessors and Interfacing Lecture 9 - 8086 Logical Instructions
Link NOC:Microprocessors and Interfacing Lecture 10 - 8086 Branch and String Instructions
Link NOC:Microprocessors and Interfacing Lecture 11 - 8086 Interrupt and Machine Control Instructions
Link NOC:Microprocessors and Interfacing Lecture 12 - Sum of Products, Multi-byte addition
Link NOC:Microprocessors and Interfacing Lecture 13 - Largest number, 2's complement Programs
Link NOC:Microprocessors and Interfacing Lecture 14 - Programs on Subroutines
Link NOC:Microprocessors and Interfacing Lecture 15 - ROM, RAM
Link NOC:Microprocessors and Interfacing Lecture 16 - Example I
Link NOC:Microprocessors and Interfacing Lecture 17 - Example II
Link NOC:Microprocessors and Interfacing Lecture 18 - Architecture, Interfacing to Simple I/O
Link NOC:Microprocessors and Interfacing Lecture 19 - Keyboard Interface
Link NOC:Microprocessors and Interfacing Lecture 20 - 7-segment Display Interface
Link NOC:Microprocessors and Interfacing Lecture 21 - Multiplexed 7-sgment Display Interface
Link NOC:Microprocessors and Interfacing Lecture 22 - Stepper motor, Liquid level control
Link NOC:Microprocessors and Interfacing Lecture 23 - Traffic light control, A/D converter
Link NOC:Microprocessors and Interfacing Lecture 24 - D/A converter
Link NOC:Microprocessors and Interfacing Lecture 25 - Electronic weighing machine
Link NOC:Microprocessors and Interfacing Lecture 26 - Programable Interval Timer (8254)
Link NOC:Microprocessors and Interfacing Lecture 27 - Modes of 8254
Link NOC:Microprocessors and Interfacing Lecture 28 - Architecture of 8259
Link NOC:Microprocessors and Interfacing Lecture 29 - Initialization command words of 8259
Link NOC:Microprocessors and Interfacing Lecture 30 - Operational command words of 8259
Link NOC:Microprocessors and Interfacing Lecture 31 - 8237 Architecture, interfacing and Programming
Link NOC:Microprocessors and Interfacing Lecture 32 - Basic Concepts of serial I/O
Link NOC:Microprocessors and Interfacing Lecture 33 - Basic Concepts of serial I/O (Continued...)
Link NOC:Microprocessors and Interfacing Lecture 34 - Architecture of 8251
Link NOC:Statistical Signal Processing Lecture 1 - Overview of Statistical Signal Processing
Link NOC:Statistical Signal Processing Lecture 2 - Probability and Random Variables
Link NOC:Statistical Signal Processing Lecture 3 - Linear Algebra of Random Variables
Link NOC:Statistical Signal Processing Lecture 4 - Random Processes
Link NOC:Statistical Signal Processing Lecture 5 - Linear Shift Invariant Systems with Random Inputs
Link NOC:Statistical Signal Processing Lecture 6 - White Noise and Spectral Factorization Theorem
Link NOC:Statistical Signal Processing Lecture 7 - Linear Models of Random Signals
Link NOC:Statistical Signal Processing Lecture 8 - Estimation Theory - 1
Link NOC:Statistical Signal Processing Lecture 9 - Estimation Theory - 2: MVUE and Cramer Rao Lower Bound
Link NOC:Statistical Signal Processing Lecture 10 - Cramer Rao Lower Bound 2
Link NOC:Statistical Signal Processing Lecture 11 - MVUE through Sufficient Statistic - 1
Link NOC:Statistical Signal Processing Lecture 12 - MVUE through Sufficient Statistic - 2
Link NOC:Statistical Signal Processing Lecture 13 - Method of Moments and Maximum Likelihood Estimators
Link NOC:Statistical Signal Processing Lecture 14 - Properties of Maximum Likelihood Estimator (MLE)
Link NOC:Statistical Signal Processing Lecture 15 - Bayesian Estimators - 1
Link NOC:Statistical Signal Processing Lecture 16 - Bayesian Estimators - 2
Link NOC:Statistical Signal Processing Lecture 17 - Optimal linear filters: Wiener Filter
Link NOC:Statistical Signal Processing Lecture 18 - FIR Wiener filter
Link NOC:Statistical Signal Processing Lecture 19 - Non-Causual IIR Wiener Filter
Link NOC:Statistical Signal Processing Lecture 20 - Causal IIR Wiener Filter
Link NOC:Statistical Signal Processing Lecture 21 - Linear Prediction of Signals - 1
Link NOC:Statistical Signal Processing Lecture 22 - Linear Prediction of Signals - 2
Link NOC:Statistical Signal Processing Lecture 23 - Linear Prediction of Signals - 3
Link NOC:Statistical Signal Processing Lecture 24 - Review Assignment - 1
Link NOC:Statistical Signal Processing Lecture 25 - Adaptive Filters - 1
Link NOC:Statistical Signal Processing Lecture 26 - Adaptive Filters - 2
Link NOC:Statistical Signal Processing Lecture 27 - Adaptive Filters - 3
Link NOC:Statistical Signal Processing Lecture 28 - Review Assignment - 2
Link NOC:Statistical Signal Processing Lecture 29 - Adaptive Filters - 4
Link NOC:Statistical Signal Processing Lecture 30 - Adaptive Filters - 4 (Continued...)
Link NOC:Statistical Signal Processing Lecture 31 - Review Assignment - 3
Link NOC:Statistical Signal Processing Lecture 32 - Recursive Least Squares (RLS) Adaptive Filter - 1
Link NOC:Statistical Signal Processing Lecture 33 - Recursive Least Squares (RLS) Adaptive Filter - 2
Link NOC:Statistical Signal Processing Lecture 34 - Review Assignment - 4
Link NOC:Statistical Signal Processing Lecture 35 - Kalman Filter - 1
Link NOC:Statistical Signal Processing Lecture 36 - Vector Kalman Filter
Link NOC:Statistical Signal Processing Lecture 37 - Linear Models of Random Signals
Link NOC:Statistical Signal Processing Lecture 38 - Review - 1
Link NOC:Statistical Signal Processing Lecture 39 - Review - 2
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 1 - Introduction to Digital Image Processing
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 2 - Introduction to Computer Vision
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 3 - Introduction to Computer Vision and Basic Concepts of Image Formation
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 4 - Shape From Shading
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 5 - Image Formation: Geometric Camera Models - I
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 6 - Image Formation: Geometric Camera Models - II
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 7 - Image Formation: Geometric Camera Models - III
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 8 - Image Formation in a Stereo Vision Setup
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 9 - Image Reconstruction from a Series of Projections
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 10 - Image Reconstruction from a Series of Projections
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 11 - Image Transforms - I
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 12 - Image Transforms - II
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 13 - Image Transforms - III
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 14 - Image Transforms - IV
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 15 - Image Enhancement
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 16 - Image Filtering - I
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 17 - Image Filtering - II
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 18 - Colour Image Processing - I
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 19 - Colour Image Processing - II
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 20 - Image Segmentation
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 21 - Image Features and Edge Detection
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 22 - Edge Detection
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 23 - Hough Transform
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 24 - Image Texture Analysis - I
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 25 - Image Texture Analysis - II
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 26 - Object Boundary and Shape Representations - I
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 27 - Object Boundary and Shape Representations - II
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 28 - Interest Point Detectors
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 29 - Image Features - HOG and SIFT
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 30 - Introduction to Machine Learning - I
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 31 - Introduction to Machine Learning - II
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 32 - Introduction to Machine Learning - III
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 33 - Introduction to Machine Learning - IV
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 34 - Introduction to Machine Learning - V
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 35 - Artificial Neural Network for Pattern Classification - I
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 36 - Artificial Neural Network for Pattern Classification - II
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 37 - Introduction to Deep Learning
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 38 - Gesture Recognition
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 39 - Background Modelling and Motion Estimation
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 40 - Object Tracking
Link NOC:Computer Vision and Image Processing - Fundamentals and Applications Lecture 41 - Programming Examples
Link NOC:System Design through VERILOG Lecture 1 - Verilog Operators and Modules
Link NOC:System Design through VERILOG Lecture 2 - Verilog Ports, Data types and Assignments
Link NOC:System Design through VERILOG Lecture 3 - Basics of gate level modeling
Link NOC:System Design through VERILOG Lecture 4 - Half adder, full adder and ripple carry adder
Link NOC:System Design through VERILOG Lecture 5 - Parallel adder/subtractor
Link NOC:System Design through VERILOG Lecture 6 - Multiplier and comparator
Link NOC:System Design through VERILOG Lecture 7 - Decoder, encoder and multiplexer
Link NOC:System Design through VERILOG Lecture 8 - Demultiplexer, read only memory
Link NOC:System Design through VERILOG Lecture 9 - Review of flip-flops
Link NOC:System Design through VERILOG Lecture 10 - Verilog modeling of flip-flops
Link NOC:System Design through VERILOG Lecture 11 - Modeling of CMOS gates and Boolean functions
Link NOC:System Design through VERILOG Lecture 12 - Modeling using transmission gates, CMOS dalay times
Link NOC:System Design through VERILOG Lecture 13 - Signal strengths
Link NOC:System Design through VERILOG Lecture 14 - Basics of dataflow modeling
Link NOC:System Design through VERILOG Lecture 15 - Examples of dataflow modeling
Link NOC:System Design through VERILOG Lecture 16 - Basics of behavioral modeling
Link NOC:System Design through VERILOG Lecture 17 - Examples of behavioral modeling
Link NOC:System Design through VERILOG Lecture 18 - Verilog modeling of counters
Link NOC:System Design through VERILOG Lecture 19 - Verilog modeling of sequence detector
Link NOC:System Design through VERILOG Lecture 20 - Verilog modeling FSMs and shift registers
Link NOC:System Design through VERILOG Lecture 21 - Combinational circuit examples
Link NOC:System Design through VERILOG Lecture 22 - Sequential circuit examples
Link NOC:System Design through VERILOG Lecture 23 - Arithmetic and Logic Unit (ALU)
Link NOC:System Design through VERILOG Lecture 24 - Static RAM and Braun Multiplier
Link NOC:System Design through VERILOG Lecture 25 - FIR filter implementation
Link NOC:System Design through VERILOG Lecture 26 - Baugh-Wooley signed multiplier architecture
Link NOC:System Design through VERILOG Lecture 27 - IIR filter implementation
Link NOC:Usability Engineering Lecture 1 - Introduction to Usability
Link NOC:Usability Engineering Lecture 2 - Usability - Historical Foundations
Link NOC:Usability Engineering Lecture 3 - Standard Terminologies
Link NOC:Usability Engineering Lecture 4 - Elements of User Experience
Link NOC:Usability Engineering Lecture 5 - Usability in software development - I
Link NOC:Usability Engineering Lecture 6 - Usability in software development - II
Link NOC:Usability Engineering Lecture 7 - User Centered Design Process - I
Link NOC:Usability Engineering Lecture 8 - User Centered Design Process - II
Link NOC:Usability Engineering Lecture 9 - User Centered Design Process - III
Link NOC:Usability Engineering Lecture 10 - Requirement Analysis - I (A)
Link NOC:Usability Engineering Lecture 11 - Requirement Analysis - I (B)
Link NOC:Usability Engineering Lecture 12 - Requirement Analysis - I (C)
Link NOC:Usability Engineering Lecture 13 - Requirement Analysis - I (D)
Link NOC:Usability Engineering Lecture 14 - Requirement Analysis - I (E)
Link NOC:Usability Engineering Lecture 15 - Requirement Analysis - I (F)
Link NOC:Usability Engineering Lecture 16 - Requirement Analysis - II (A)
Link NOC:Usability Engineering Lecture 17 - Requirement Analysis - II (B)
Link NOC:Usability Engineering Lecture 18 - Requirement Analysis - II (C)
Link NOC:Usability Engineering Lecture 19 - Requirement Analysis - II (D)
Link NOC:Usability Engineering Lecture 20 - Requirement Analysis - III (A)
Link NOC:Usability Engineering Lecture 21 - Eye Tracker
Link NOC:Usability Engineering Lecture 22 - Demonstration of an Eye tracking device
Link NOC:Usability Engineering Lecture 23 - Requirement Analysis - III (B)
Link NOC:Usability Engineering Lecture 24 - Mapping Experiences
Link NOC:Usability Engineering Lecture 25 - Cognitive Issues - I
Link NOC:Usability Engineering Lecture 26 - Cognitive Issues - II
Link NOC:Usability Engineering Lecture 27 - Cognitive Issues - III
Link NOC:Usability Engineering Lecture 28 - Cognitive Issues - IV
Link NOC:Usability Engineering Lecture 29 - Competitive analysis and preparing for design briefing - I
Link NOC:Usability Engineering Lecture 30 - Competitive analysis and preparing for design briefing - II
Link NOC:Usability Engineering Lecture 31 - Conceptualization and Prototyping - I (A)
Link NOC:Usability Engineering Lecture 32 - Conceptualization and Prototyping - I (B)
Link NOC:Usability Engineering Lecture 33 - Conceptualization and Prototyping - I (C)
Link NOC:Usability Engineering Lecture 34 - Conceptualization and Prototyping - II (A)
Link NOC:Usability Engineering Lecture 35 - Conceptualization and Prototyping - II (B)
Link NOC:Usability Engineering Lecture 36 - Usability heuristics and testing - I
Link NOC:Usability Engineering Lecture 37 - Usability heuristics and testing - II
Link NOC:Usability Engineering Lecture 38 - Usability heuristics and testing - III
Link NOC:Usability Engineering Lecture 39 - Usability Testing (A)
Link NOC:Usability Engineering Lecture 40 - Usability Testing (B)
Link NOC:Usability Engineering Lecture 41 - Usability Testing (C)
Link NOC:Usability Engineering Lecture 42 - UI/UX design based on Garret model: a case study
Link NOC:Usability Engineering Lecture 43 - Effective contextual enquiry
Link NOC:Usability Engineering Lecture 44 - Contextual enquiry: case study
Link NOC:Probability and Random Processes Lecture 1 - Introduction
Link NOC:Probability and Random Processes Lecture 2 - Algebra of Events
Link NOC:Probability and Random Processes Lecture 3 - Axioms of Probability
Link NOC:Probability and Random Processes Lecture 4 - Example 1
Link NOC:Probability and Random Processes Lecture 5 - Example 2
Link NOC:Probability and Random Processes Lecture 6 - Example 3
Link NOC:Probability and Random Processes Lecture 7 - Example 4
Link NOC:Probability and Random Processes Lecture 8 - Example 5
Link NOC:Probability and Random Processes Lecture 9 - Conditional Probability
Link NOC:Probability and Random Processes Lecture 10 - Bayes Theorem 1
Link NOC:Probability and Random Processes Lecture 11 - Bayes Theorem 2
Link NOC:Probability and Random Processes Lecture 12 - A Brief Review
Link NOC:Probability and Random Processes Lecture 13 - Example 1
Link NOC:Probability and Random Processes Lecture 14 - Example 2
Link NOC:Probability and Random Processes Lecture 15 - Example 3
Link NOC:Probability and Random Processes Lecture 16 - Example 4
Link NOC:Probability and Random Processes Lecture 17 - Example 5
Link NOC:Probability and Random Processes Lecture 18 - Independent Events
Link NOC:Probability and Random Processes Lecture 19 - A Brief Review
Link NOC:Probability and Random Processes Lecture 20 - Example 1
Link NOC:Probability and Random Processes Lecture 21 - Example 2
Link NOC:Probability and Random Processes Lecture 22 - Example 3
Link NOC:Probability and Random Processes Lecture 23 - Example 4
Link NOC:Probability and Random Processes Lecture 24 - Discrete Random Variables
Link NOC:Probability and Random Processes Lecture 25 - Expectation
Link NOC:Probability and Random Processes Lecture 26 - Moments
Link NOC:Probability and Random Processes Lecture 27 - Variance
Link NOC:Probability and Random Processes Lecture 28 - Binomial Random Variables
Link NOC:Probability and Random Processes Lecture 29 - Poisson Random Variables
Link NOC:Probability and Random Processes Lecture 30 - More on Poission Random Variables
Link NOC:Probability and Random Processes Lecture 31 - Properties of the CDF
Link NOC:Probability and Random Processes Lecture 32 - A Brief Review - I
Link NOC:Probability and Random Processes Lecture 33 - A Brief Review - II
Link NOC:Probability and Random Processes Lecture 34 - Example 1
Link NOC:Probability and Random Processes Lecture 35 - Example 2
Link NOC:Probability and Random Processes Lecture 36 - Example 3
Link NOC:Probability and Random Processes Lecture 37 - Example 4
Link NOC:Probability and Random Processes Lecture 38 - Example 5
Link NOC:Probability and Random Processes Lecture 39 - Example 6
Link NOC:Probability and Random Processes Lecture 40 - Example 7
Link NOC:Probability and Random Processes Lecture 41 - Example 8
Link NOC:Probability and Random Processes Lecture 42 - Example 9
Link NOC:Probability and Random Processes Lecture 43 - Continuous Random Variables
Link NOC:Probability and Random Processes Lecture 44 - Expectation of Continuous random variables
Link NOC:Probability and Random Processes Lecture 45 - The uniform and the Gaussian Random variables
Link NOC:Probability and Random Processes Lecture 46 - The mean and variance of a Gaussian Random Variable
Link NOC:Probability and Random Processes Lecture 47 - The exponential random variable and other continuous distributions
Link NOC:Probability and Random Processes Lecture 48 - A Brief Review
Link NOC:Probability and Random Processes Lecture 49 - Example 1
Link NOC:Probability and Random Processes Lecture 50 - Example 2
Link NOC:Probability and Random Processes Lecture 51 - Example 3
Link NOC:Probability and Random Processes Lecture 52 - Example 4
Link NOC:Probability and Random Processes Lecture 53 - Example 5
Link NOC:Probability and Random Processes Lecture 54 - Functions of a random varible
Link NOC:Probability and Random Processes Lecture 55 - Functions of a random varible
Link NOC:Probability and Random Processes Lecture 56 - The moment generating function
Link NOC:Probability and Random Processes Lecture 57 - Conditional Distributions
Link NOC:Probability and Random Processes Lecture 58 - Bivariate Distributions
Link NOC:Probability and Random Processes Lecture 59 - Independence of Random Varibles
Link NOC:Probability and Random Processes Lecture 60 - Jointly Gaussian Random Varibales and Circular symmetry
Link NOC:Probability and Random Processes Lecture 61 - Jointly Discrete Random Variables
Link NOC:Probability and Random Processes Lecture 62 - One Function of two random variables
Link NOC:Probability and Random Processes Lecture 63 - Order Statistics
Link NOC:Probability and Random Processes Lecture 64 - Two functions of two random variables
Link NOC:Probability and Random Processes Lecture 65 - Joint Moments
Link NOC:Probability and Random Processes Lecture 66 - Joint Charactristic Functions
Link NOC:Probability and Random Processes Lecture 67 - Conditional Distributions for multiple random variables
Link NOC:Probability and Random Processes Lecture 68 - Conditional Expectations
Link NOC:Probability and Random Processes Lecture 69 - Examples
Link NOC:Probability and Random Processes Lecture 70 - Random Vectors
Link NOC:Probability and Random Processes Lecture 71 - Independence of Random Varibles
Link NOC:Probability and Random Processes Lecture 72 - Complex Random Varibales
Link NOC:Probability and Random Processes Lecture 73 - Covariance Matrices
Link NOC:Probability and Random Processes Lecture 74 - Conditional Densities
Link NOC:Probability and Random Processes Lecture 75 - Gaussianity
Link NOC:Probability and Random Processes Lecture 76 - Chi Squared Densities
Link NOC:Probability and Random Processes Lecture 77 - Examples
Link NOC:Probability and Random Processes Lecture 78 - Estimation Theory
Link NOC:Probability and Random Processes Lecture 79 - Measurements
Link NOC:Probability and Random Processes Lecture 80 - Sequences of Random Variables
Link NOC:Probability and Random Processes Lecture 81 - Laws of large numbers
Link NOC:Probability and Random Processes Lecture 82 - Random processes
Link NOC:Probability and Random Processes Lecture 83 - Stationarity, Cyclostationarity, Ergodicity
Link NOC:Probability and Random Processes Lecture 84 - Random Processes as Signals (PSD and LTI Response)
Link NOC:Probability and Random Processes Lecture 85 - White and Gaussian Processes Noise
Link NOC:Simulation of Communication Systems using Matlab Lecture 1 - Introduction
Link NOC:Simulation of Communication Systems using Matlab Lecture 2 - Basics of MATLAB
Link NOC:Simulation of Communication Systems using Matlab Lecture 3 - Data Types
Link NOC:Simulation of Communication Systems using Matlab Lecture 4 - Floating Point Numbers
Link NOC:Simulation of Communication Systems using Matlab Lecture 5 - Scripts and Flow of Control
Link NOC:Simulation of Communication Systems using Matlab Lecture 6 - The For Loop
Link NOC:Simulation of Communication Systems using Matlab Lecture 7 - Arrays
Link NOC:Simulation of Communication Systems using Matlab Lecture 8 - Indexing
Link NOC:Simulation of Communication Systems using Matlab Lecture 9 - Some Reuslts from Linear Algebra
Link NOC:Simulation of Communication Systems using Matlab Lecture 10 - Matrix Multiplication
Link NOC:Simulation of Communication Systems using Matlab Lecture 11 - Eigenvalues and Eigenvectors
Link NOC:Simulation of Communication Systems using Matlab Lecture 12 - Complex Numbers
Link NOC:Simulation of Communication Systems using Matlab Lecture 13 - Hermitian Matrices
Link NOC:Simulation of Communication Systems using Matlab Lecture 14 - Matrix Inversion
Link NOC:Simulation of Communication Systems using Matlab Lecture 15 - Signals
Link NOC:Simulation of Communication Systems using Matlab Lecture 16 - Convolution
Link NOC:Simulation of Communication Systems using Matlab Lecture 17 - Probability
Link NOC:Simulation of Communication Systems using Matlab Lecture 18 - Bayes Theorem
Link NOC:Simulation of Communication Systems using Matlab Lecture 19 - Random Varibles
Link NOC:Simulation of Communication Systems using Matlab Lecture 20 - Clinical Trials - I
Link NOC:Simulation of Communication Systems using Matlab Lecture 21 - Clinical Trials - II
Link NOC:Simulation of Communication Systems using Matlab Lecture 22 - Random Numbers
Link NOC:Simulation of Communication Systems using Matlab Lecture 23 - Random Disttributions
Link NOC:Simulation of Communication Systems using Matlab Lecture 24 - Histograms - I
Link NOC:Simulation of Communication Systems using Matlab Lecture 25 - Histograms - II
Link NOC:Simulation of Communication Systems using Matlab Lecture 26 - Functions of Random Variables
Link NOC:Simulation of Communication Systems using Matlab Lecture 27 - Generating Random Disttributions
Link NOC:Simulation of Communication Systems using Matlab Lecture 28 - Laws of Large numbers
Link NOC:Simulation of Communication Systems using Matlab Lecture 29 - Random Processes
Link NOC:Simulation of Communication Systems using Matlab Lecture 30 - Properties of Random Processes
Link NOC:Simulation of Communication Systems using Matlab Lecture 31 - Power Spectra
Link NOC:Simulation of Communication Systems using Matlab Lecture 32 - Signals and Noise
Link NOC:Simulation of Communication Systems using Matlab Lecture 33 - Stochastic Models
Link NOC:Simulation of Communication Systems using Matlab Lecture 34 - The AR-1 Process
Link NOC:Simulation of Communication Systems using Matlab Lecture 35 - Stochastic Models II
Link NOC:Simulation of Communication Systems using Matlab Lecture 36 - Yule Walker Equations
Link NOC:Simulation of Communication Systems using Matlab Lecture 37 - Markov Chains - I
Link NOC:Simulation of Communication Systems using Matlab Lecture 38 - Markov Chains - II
Link NOC:Simulation of Communication Systems using Matlab Lecture 39 - Markov Chains - III
Link NOC:Simulation of Communication Systems using Matlab Lecture 40 - Analog to Digital Coversion
Link NOC:Simulation of Communication Systems using Matlab Lecture 41 - K Means
Link NOC:Simulation of Communication Systems using Matlab Lecture 42 - Correlation
Link NOC:Simulation of Communication Systems using Matlab Lecture 43 - Predictive Coding
Link NOC:Simulation of Communication Systems using Matlab Lecture 44 - Image Compression
Link NOC:Simulation of Communication Systems using Matlab Lecture 45 - Transform Domain Compression
Link NOC:Simulation of Communication Systems using Matlab Lecture 46 - Multi Resolution Coding
Link NOC:Simulation of Communication Systems using Matlab Lecture 47 - Introduction to Communications
Link NOC:Simulation of Communication Systems using Matlab Lecture 48 - Low Pass and BandPass Signals
Link NOC:Simulation of Communication Systems using Matlab Lecture 49 - Signal Spaces
Link NOC:Simulation of Communication Systems using Matlab Lecture 50 - PAM
Link NOC:Simulation of Communication Systems using Matlab Lecture 51 - Detection
Link NOC:Simulation of Communication Systems using Matlab Lecture 52 - Effects of AWGN
Link NOC:Simulation of Communication Systems using Matlab Lecture 53 - ML Detection - I
Link NOC:Simulation of Communication Systems using Matlab Lecture 54 - ML Detection - II
Link NOC:Simulation of Communication Systems using Matlab Lecture 55 - The Union Bound
Link NOC:Simulation of Communication Systems using Matlab Lecture 56 - Symbol Error Rates
Link NOC:Simulation of Communication Systems using Matlab Lecture 57 - Choosing Constellations
Link NOC:Simulation of Communication Systems using Matlab Lecture 58 - Orthogonal Signalling
Link NOC:Simulation of Communication Systems using Matlab Lecture 59 - Non-Coherent Dection - 1
Link NOC:Simulation of Communication Systems using Matlab Lecture 60 - Non-Coherent Dection - 2
Link NOC:Simulation of Communication Systems using Matlab Lecture 61 - DPSK - I
Link NOC:Simulation of Communication Systems using Matlab Lecture 62 - DPSK - II
Link NOC:Simulation of Communication Systems using Matlab Lecture 63 - Introduction to Wireless Communications
Link NOC:Simulation of Communication Systems using Matlab Lecture 64 - Conclusion
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 1 - Introduction to Machine Learning
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 2 - Performance Measures of Classification
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 3 - Bias-Variance Tradeoff
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 4 - Regression
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 5 - Bayesian Decision Theory - 1
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 6 - Bayesian Decision Theory - 2
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 7 - Bayes Decision Theory - Binary Features
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 8 - Bayesian Decision Theory - 3
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 9 - Bayesian Decision Theory - 4
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 10 - Bayesian Belief Networks
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 11 - Parameter Estimation and Maximum Likelihood Estimation
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 12 - Parameter Estimation and Bayesian Estimation
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 13 - Concept of non-parametric techniques
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 14 - Density Estimation by Parzen Window
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 15 - Parzen Window and K nearest neighbor algorithm
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 16 - Linear Discriminant Functions and Perceptron Criteria - Part I
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 17 - Linear Discriminant Functions and Perceptron Criteria - Part II
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 18 - Linear Discriminant Functions and Perceptron Criteria - Part III
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 19 - Support Vector Machine - Part I
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 20 - Support Vector Machine - Part II
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 21 - Logistic Regression
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 22 - Decision Tree
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 23 - Hidden Markov Model (HMM)
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 24 - Ensemble Classifiers - Part I
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 25 - Ensemble Classifiers - Part II
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 26 - Dimensionality Problem and Principal Component Analysis
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 27 - Principal Component Analysis
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 28 - Linear Discriminant Analysis (LDA) - Part I
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 29 - Linear Discriminant Analysis (LDA) - Part II
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 30 - Gaussian Mixture Model and EM Algorithm
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 31 - K-means clustering.
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 32 - Fuzzy K-means clustering
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 33 - Hierarchical Agglomerative Clustering and Mean-shift Clustering
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 34 - Artificial Neural Networks for Pattern Classification - Part 1
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 35 - Artificial Neural Networks for Pattern Classification - Part 2
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 36 - Artificial Neural Networks for Pattern Classification - Part 3
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 37 - Introduction to Deep Learning and Convolutional Neural Network (CNN)
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 38 - Vanishing and Exploding Gradients in Deep Neural Networks
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 39 - CNN Architectures - LeNet-5 and AlexNet
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 40 - CNN Architectures - VGG 16, GoogLeNet and ResNet
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 41 - Generative Adversarial Networks (GAN) - Fundamentals and Applications
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 42 - U-Net: Convolutional Networks for Image Segmentation
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 43 - Introduction to Autoencoder and Recurrent Neural Networks (RNN)
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 44 - Programming Concepts - 1
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 45 - Programming Concepts - 2
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 46 - Problem Solving Session - 1
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 47 - Problem Solving Session - 2
Link NOC:Machine Learning and Deep Learning - Fundamentals and Applications Lecture 48 - Problem Solving Session - 3
Link NOC:Integrated Circuits and Applications Lecture 1 - Introduction to Integrated Circuits
Link NOC:Integrated Circuits and Applications Lecture 2 - Summing and Difference Amplifiers
Link NOC:Integrated Circuits and Applications Lecture 3 - Instrumentation Amplifier
Link NOC:Integrated Circuits and Applications Lecture 4 - Integrator and Diffrentiator
Link NOC:Integrated Circuits and Applications Lecture 5 - Precision Half Wave and Full Wave Rectifiers
Link NOC:Integrated Circuits and Applications Lecture 6 - Clipper and Clamper circuits
Link NOC:Integrated Circuits and Applications Lecture 7 - Logarithmic and Anti-logarithmic Amplifiers
Link NOC:Integrated Circuits and Applications Lecture 8 - DC Characteristics (Offset Currents and Voltages)
Link NOC:Integrated Circuits and Applications Lecture 9 - AC Charcterstics (Frequency Response)
Link NOC:Integrated Circuits and Applications Lecture 10 - AC Charcterstics (Compensation Techniques and Slew Rate)
Link NOC:Integrated Circuits and Applications Lecture 11 - Examples on Design of Adder and Subtractor Circuits
Link NOC:Integrated Circuits and Applications Lecture 12 - Examples on Transfer Function Computation
Link NOC:Integrated Circuits and Applications Lecture 13 - Examples on Instrumentation Amplifier
Link NOC:Integrated Circuits and Applications Lecture 14 - Examples on CMRR Computation
Link NOC:Integrated Circuits and Applications Lecture 15 - First Order Low Pass Filter
Link NOC:Integrated Circuits and Applications Lecture 16 - Second Order Low Pass Filter
Link NOC:Integrated Circuits and Applications Lecture 17 - Design of Butterworth Low Pass Filter
Link NOC:Integrated Circuits and Applications Lecture 18 - Design of Butterworth High Pass Filter
Link NOC:Integrated Circuits and Applications Lecture 19 - Design of Band Pass Filter
Link NOC:Integrated Circuits and Applications Lecture 20 - Design of Band Stop Filter
Link NOC:Integrated Circuits and Applications Lecture 21 - All Pass Filter
Link NOC:Integrated Circuits and Applications Lecture 22 - RC Phase Shift Oscillator
Link NOC:Integrated Circuits and Applications Lecture 23 - Wien Bridge, Colpitt's and Hartley Oscillators
Link NOC:Integrated Circuits and Applications Lecture 24 - Comparator and Schmitt Trigger Circuits
Link NOC:Integrated Circuits and Applications Lecture 25 - Square Wave and Triangular Waveform Generators
Link NOC:Integrated Circuits and Applications Lecture 26 - Monostable operation
Link NOC:Integrated Circuits and Applications Lecture 27 - Monostable applications - I
Link NOC:Integrated Circuits and Applications Lecture 28 - Monostable applications - II
Link NOC:Integrated Circuits and Applications Lecture 29 - Astable operation
Link NOC:Integrated Circuits and Applications Lecture 30 - Phase detectors
Link NOC:Integrated Circuits and Applications Lecture 31 - Voltage Controlled oscillator
Link NOC:Integrated Circuits and Applications Lecture 32 - PLL IC 565 operation
Link NOC:Integrated Circuits and Applications Lecture 33 - PLL Applications
Link NOC:Integrated Circuits and Applications Lecture 34 - Fixed Voltage Regulator
Link NOC:Integrated Circuits and Applications Lecture 35 - Adjastable Voltage Regulator
Link NOC:Integrated Circuits and Applications Lecture 36 - Switching Regulators
Link NOC:Integrated Circuits and Applications Lecture 37 - Weighted Resistor D/A Converter
Link NOC:Integrated Circuits and Applications Lecture 38 - R-2R Ladder D/A Converter
Link NOC:Integrated Circuits and Applications Lecture 39 - Inverted R-2R Ladder D/A Converter
Link NOC:Integrated Circuits and Applications Lecture 40 - Analog to Digital Converters
Link NOC:Integrated Circuits and Applications Lecture 41 - CMOS Inverter
Link NOC:Integrated Circuits and Applications Lecture 42 - CMOS NAND Gate
Link NOC:Integrated Circuits and Applications Lecture 43 - Transient Response of CMOS NAND and NOR Gates
Link NOC:Integrated Circuits and Applications Lecture 44 - Boolean function Realization using CMOS and Sizing
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 1 - Motivation and Introduction to Photonic Crystals
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 2 - Overview of Photonic Crystal technology
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 3 - Fundamentals of EM theory of Light
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 4 - Electromagnetic Properties of Materials
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 5 - Scaling Properties of Maxwell's Equaltions
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 6 - Electromagnetism as an Eigenvalue Problem
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 7 - Symmetries for Classification of EM Modes
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 8 - Real and Reciprocal lattices
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 9 - Photonic band Structure: Computation and Analysis
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 10 - Fundamentals of 1D Photonic Crystal
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 11 - Analysis and Engineering of 1D Photonic Band Structure
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 12 - Applications of 1D Photonic Crystal
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 13 - Fundamentals of 2D photonic crystals
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 14 - Analysis and Engineering of 2D Photonic Band Structure
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 15 - Applications of 2D photonic crystals
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 16 - Overview of different 3D Photonic Crystals
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 17 - Crystals with complete bandgap
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 18 - Applications of 2D and 3D photonic crystals
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 19 - Overview and Modelling of Periodic Dielectric Waveguides
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 20 - Point Defects in Periodic Dielectric Waveguides and Q-factors of Lossy Cavities
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 21 - Applications: Fiber Bragg Grating
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 22 - Overview of Photonic Crystal Slabs
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 23 - Different types of defects in Photonic Cruystal Slabs
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 24 - Engineering High-Q resonant Cavity
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 25 - Overview of photonic crystal fibers
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 26 - Index-guiding photonic crystal fibers
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 27 - Band-gap guidance in Holey Fibers
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 28 - Overview of Bragg Fibers
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 29 - Losses in Hollow-core Fibers
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 30 - Applications of Photonic Crystal Fibers
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 31 - Designing a mirror, waveguide, acavity
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 32 - Temporal Coupled Mode Theory: Fundamentals and Applications
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 33 - Waveguide Splitters, Non-linear Filters, and Bistability
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 34 - Unusual Refraction and Diffraction Effects
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 35 - Photonic Crystal Devices for Slow Wave Phenomena
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 36 - Next Generation Devices based on Photonic Crystals
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 37 - Simulation Demonstration of Topological Photonic Crystals Based Waveguides - Part 1
Link NOC:Photonic Crystals: Fundamentals and Applications Lecture 38 - Simulation Demonstration of Topological Photonic Crystals Based Waveguides - Part 2
Link Advanced Electric Drives Lecture 1
Link Advanced Electric Drives Lecture 2
Link Advanced Electric Drives Lecture 3
Link Advanced Electric Drives Lecture 4
Link Advanced Electric Drives Lecture 5
Link Advanced Electric Drives Lecture 6
Link Advanced Electric Drives Lecture 7
Link Advanced Electric Drives Lecture 8
Link Advanced Electric Drives Lecture 9
Link Advanced Electric Drives Lecture 10
Link Advanced Electric Drives Lecture 11
Link Advanced Electric Drives Lecture 12
Link Advanced Electric Drives Lecture 13
Link Advanced Electric Drives Lecture 14
Link Advanced Electric Drives Lecture 15
Link Advanced Electric Drives Lecture 16
Link Advanced Electric Drives Lecture 17
Link Advanced Electric Drives Lecture 18
Link Advanced Electric Drives Lecture 19
Link Advanced Electric Drives Lecture 20
Link Advanced Electric Drives Lecture 21
Link Advanced Electric Drives Lecture 22
Link Advanced Electric Drives Lecture 23
Link Advanced Electric Drives Lecture 24
Link Advanced Electric Drives Lecture 25
Link Advanced Electric Drives Lecture 26
Link Advanced Electric Drives Lecture 27
Link Advanced Electric Drives Lecture 28
Link Advanced Electric Drives Lecture 29
Link Advanced Electric Drives Lecture 30
Link Advanced Electric Drives Lecture 31
Link Advanced Electric Drives Lecture 32
Link Advanced Electric Drives Lecture 33
Link Advanced Electric Drives Lecture 34
Link Advanced Electric Drives Lecture 35
Link Advanced Electric Drives Lecture 36
Link Advanced Electric Drives Lecture 37
Link Advanced Electric Drives Lecture 38
Link Advanced Electric Drives Lecture 39
Link Advanced Electric Drives Lecture 40
Link High Voltage DC Transmission Lecture 1 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 2 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 3 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 4 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 5 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 6 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 7 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 8 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 9 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 10 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 11 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 12 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 13 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 14 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 15 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 16 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 17 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 18 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 19 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 20 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 21 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 22 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 23 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 24 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 25 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 26 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 27 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 28 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 29 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 30 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 31 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 32 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 33 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 34 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 35 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 36 - High Voltage DC Transmission
Link High Voltage DC Transmission Lecture 37 - High Voltage DC Transmission
Link Intelligent Systems and Control Lecture 1 - Introduction to Intelligent Systems and Control
Link Intelligent Systems and Control Lecture 2 - Linear Neural networks
Link Intelligent Systems and Control Lecture 3 - Multi layered Neural Networks
Link Intelligent Systems and Control Lecture 4 - Back Propagation Algorithm revisited
Link Intelligent Systems and Control Lecture 5 - Non Linear System Analysis - Part I
Link Intelligent Systems and Control Lecture 6 - Non Linear System Analysis - Part II
Link Intelligent Systems and Control Lecture 7 - Radial Basis Function Networks
Link Intelligent Systems and Control Lecture 8 - Adaptive Learning rate
Link Intelligent Systems and Control Lecture 9 - Weight update rules
Link Intelligent Systems and Control Lecture 10 - Recurrent networks Back propagation through time
Link Intelligent Systems and Control Lecture 11 - Recurrent networks Real time recurrent learning
Link Intelligent Systems and Control Lecture 12 - Self organizing Map - Multidimensional networks
Link Intelligent Systems and Control Lecture 13 - Fuzzy sets - A Primer
Link Intelligent Systems and Control Lecture 14 - Fuzzy Relations
Link Intelligent Systems and Control Lecture 15 - Fuzzy Rule base and Approximate Reasoning
Link Intelligent Systems and Control Lecture 16 - Introduction to Fuzzy Logic Control
Link Intelligent Systems and Control Lecture 17 - Neural Control A review
Link Intelligent Systems and Control Lecture 18 - Network inversion and Control
Link Intelligent Systems and Control Lecture 19 - Neural Model of a Robot manipulator
Link Intelligent Systems and Control Lecture 20 - Indirect Adaptive Control of a Robot manipulator
Link Intelligent Systems and Control Lecture 21 - Adaptive neural control for Affine Systems SISO
Link Intelligent Systems and Control Lecture 22 - Adaptive neural control for Affine systems MIMO
Link Intelligent Systems and Control Lecture 23 - Visual Motor Coordination with KSOM
Link Intelligent Systems and Control Lecture 24 - Visual Motor coordination - quantum clustering
Link Intelligent Systems and Control Lecture 25 - Direct Adaptive control of Manipulators - Intro
Link Intelligent Systems and Control Lecture 26 - NN based back stepping control
Link Intelligent Systems and Control Lecture 27 - Fuzzy Control - a Review
Link Intelligent Systems and Control Lecture 28 - Mamdani type flc and parameter optimization
Link Intelligent Systems and Control Lecture 29 - Fuzzy Control of a pH reactor
Link Intelligent Systems and Control Lecture 30 - Fuzzy Lyapunov controller - Computing with words
Link Intelligent Systems and Control Lecture 31 - Controller Design for a T-S Fuzzy model
Link Intelligent Systems and Control Lecture 32 - Linear controllers using T-S fuzzy model
Link Power Systems Operation and Control Module 1 - Lecture 1
Link Power Systems Operation and Control Module 1 - Lecture 2
Link Power Systems Operation and Control Module 1 - Lecture 3
Link Power Systems Operation and Control Module 2 - Lecture 1
Link Power Systems Operation and Control Module 2 - Lecture 2
Link Power Systems Operation and Control Module 2 - Lecture 3
Link Power Systems Operation and Control Module 2 - Lecture 4
Link Power Systems Operation and Control Module 2 - Lecture 5
Link Power Systems Operation and Control Module 2 - Lecture 6
Link Power Systems Operation and Control Module 2 - Lecture 7
Link Power Systems Operation and Control Module 2 - Lecture 8
Link Power Systems Operation and Control Module 2 - Lecture 9
Link Power Systems Operation and Control Module 2 - Lecture 10
Link Power Systems Operation and Control Module 2 - Lecture 11
Link Power Systems Operation and Control Module 2 - Lecture 12
Link Power Systems Operation and Control Module 2 - Lecture 13
Link Power Systems Operation and Control Module 2 - Lecture 14
Link Power Systems Operation and Control Module 3 - Lecture 1
Link Power Systems Operation and Control Module 3 - Lecture 2
Link Power Systems Operation and Control Module 3 - Lecture 3
Link Power Systems Operation and Control Module 3 - Lecture 4
Link Power Systems Operation and Control Module 3 - Lecture 5
Link Power Systems Operation and Control Module 3 - Lecture 6
Link Power Systems Operation and Control Module 3 - Lecture 7
Link Power Systems Operation and Control Module 3 - Lecture 8
Link Power Systems Operation and Control Module 3 - Lecture 9
Link Power Systems Operation and Control Module 3 - Lecture 10
Link Power Systems Operation and Control Module 4 - Lecture 1
Link Power Systems Operation and Control Module 4 - Lecture 2
Link Power Systems Operation and Control Module 4 - Lecture 3
Link Power Systems Operation and Control Module 4 - Lecture 4
Link Power Systems Operation and Control Module 5 - Lecture 1
Link Power Systems Operation and Control Module 5 - Lecture 2
Link Power Systems Operation and Control Module 6 - Lecture 1
Link Power Systems Operation and Control Module 6 - Lecture 2
Link NOC:Electromagnetic theory Lecture 1 - Introduction to EMT
Link NOC:Electromagnetic theory Lecture 2 - Coulombs law
Link NOC:Electromagnetic theory Lecture 3 - Vector analysis-I and Introduction to coordinate system
Link NOC:Electromagnetic theory Lecture 4 - Rectangular coordinate system
Link NOC:Electromagnetic theory Lecture 5 - Vector analysis-II
Link NOC:Electromagnetic theory Lecture 6 - Introduction to Electric field
Link NOC:Electromagnetic theory Lecture 7 - Electric field-I
Link NOC:Electromagnetic theory Lecture 8 - Cylindrical coordinate system
Link NOC:Electromagnetic theory Lecture 9 - Transformation and Electric field-II
Link NOC:Electromagnetic theory Lecture 10 - Electric Potential-I
Link NOC:Electromagnetic theory Lecture 11 - Spherical co-ordinate system and Electric potential-II
Link NOC:Electromagnetic theory Lecture 12 - Vector Analysis-III and Electric potential-III
Link NOC:Electromagnetic theory Lecture 13 - Gauss’s law and its application-I
Link NOC:Electromagnetic theory Lecture 14 - Gauss’s law and its application-II
Link NOC:Electromagnetic theory Lecture 15 - Divergence and Poisson’s and Laplace’s equation
Link NOC:Electromagnetic theory Lecture 16 - Gauss’s law and its application -III
Link NOC:Electromagnetic theory Lecture 17 - Vector analysis –III (curl and its significance)
Link NOC:Electromagnetic theory Lecture 18 - Conductor and dielectric-I
Link NOC:Electromagnetic theory Lecture 19 - Polarization - I
Link NOC:Electromagnetic theory Lecture 20 - Polarization - II
Link NOC:Electromagnetic theory Lecture 21 - Polarization - II (Continued...)
Link NOC:Electromagnetic theory Lecture 22 - Boundary condition
Link NOC:Electromagnetic theory Lecture 23 - Continuity equation and Conductors - III
Link NOC:Electromagnetic theory Lecture 24 - Conductors – IV
Link NOC:Electromagnetic theory Lecture 25 - Conductors – IV (Continued...) and Capacitor - I
Link NOC:Electromagnetic theory Lecture 26 - Capacitor - II
Link NOC:Electromagnetic theory Lecture 27 - Capacitor - II (Continued...) and Equipotential Surfaces
Link NOC:Electromagnetic theory Lecture 28 - Solution of Laplace’s equation-I
Link NOC:Electromagnetic theory Lecture 29 - Solution of Laplace’s equation-I I and method of images-I
Link NOC:Electromagnetic theory Lecture 30 - Method of images-II
Link NOC:Electromagnetic theory Lecture 31 - Solution of Laplace’s equation-III
Link NOC:Electromagnetic theory Lecture 32 - Solution of Laplace’s equation-IV
Link NOC:Electromagnetic theory Lecture 33 - Introduction of magnetic field
Link NOC:Electromagnetic theory Lecture 34 - Biot savart law and its application
Link NOC:Electromagnetic theory Lecture 35 - Biot savart lawandits application-II
Link NOC:Electromagnetic theory Lecture 36 - Magnetic vector potential
Link NOC:Electromagnetic theory Lecture 37 - Magnetic force, torque and dipole
Link NOC:Electromagnetic theory Lecture 38 - Magnetic force, torque and dipole (Continued...)
Link NOC:Electromagnetic theory Lecture 39 - Magnetic materials-I
Link NOC:Electromagnetic theory Lecture 40 - Magnetic materials-I (Continued...) and Magnetic moment
Link NOC:Electromagnetic theory Lecture 41 - Magnetic materials-I (Continued...) and Boundary condition for Magnetic fields
Link NOC:Electromagnetic theory Lecture 42 - Inductor and calculation of inductance for different shapes
Link NOC:Electromagnetic theory Lecture 43 - Inductor and calculation of inductance for different shapes (Continued...)
Link NOC:Electromagnetic theory Lecture 44 - Faradays law and its application-I
Link NOC:Electromagnetic theory Lecture 45 - Faradays law and its application-II
Link NOC:Electromagnetic theory Lecture 46 - Displacement current
Link NOC:Electromagnetic theory Lecture 47 - Maxwell’s equation
Link NOC:Electromagnetic theory Lecture 48 - Wave propagation
Link NOC:Electromagnetic theory Lecture 49 - Solution of Helmholtz equation
Link NOC:Electromagnetic theory Lecture 50 - Uniform plane waves
Link NOC:Electromagnetic theory Lecture 51 - Polarization and Poynting Vector
Link NOC:Electromagnetic theory Lecture 52 - Wave reflections (Normal incidence)
Link NOC:Electromagnetic theory Lecture 53 - Waves in imperfect dielectrics and Good conductors
Link NOC:Electromagnetic theory Lecture 54 - Skin depth/effect
Link NOC:Electromagnetic theory Lecture 55 - Oblique incidence of waves
Link NOC:Electromagnetic theory Lecture 56 - Oblique incidence of waves (Continued...)
Link NOC:Electromagnetic theory Lecture 57 - Transmission line
Link NOC:Electromagnetic theory Lecture 58 - Transmission line model
Link NOC:Electromagnetic theory Lecture 59 - Steady state sinusoidal response of T-line-I
Link NOC:Electromagnetic theory Lecture 60 - Steady state sinusoidal response of T-line-II
Link NOC:Electromagnetic theory Lecture 61 - Steady state sinusoidal response of T-line-IIand Smith chart
Link NOC:Electromagnetic theory Lecture 62 - Application of smith chart-I
Link NOC:Electromagnetic theory Lecture 63 - Application of smith chart-II
Link NOC:Electromagnetic theory Lecture 64 - Impedance matching
Link NOC:Electromagnetic theory Lecture 65 - Transients on Transmission line-I
Link NOC:Electromagnetic theory Lecture 66 - Transients on Transmission line-II
Link NOC:Electromagnetic theory Lecture 67 - Pulse on Transmission line
Link NOC:Electromagnetic theory Lecture 68 - Capacitive termination in Transmission line
Link NOC:Electromagnetic theory Lecture 69 - Waveguide
Link NOC:Electromagnetic theory Lecture 70 - Waveguide Analysis
Link NOC:Electromagnetic theory Lecture 71 - TM modes in Waveguide
Link NOC:Electromagnetic theory Lecture 72 - Rectangular waveguide: TM modes
Link NOC:Electromagnetic theory Lecture 73 - Rectangular waveguide: TE modes
Link NOC:Electromagnetic theory Lecture 74 - Waveguide: Wavelength, Impedance and power calculation
Link NOC:Electromagnetic theory Lecture 75 - Waveguide losses
Link NOC:Electromagnetic theory Lecture 76 - Dielectric Waveguide
Link NOC:Electromagnetic theory Lecture 77 - Dielectric Waveguide (Continued...)
Link NOC:Electromagnetic theory Lecture 78 - Radiation and Antenna
Link NOC:Electromagnetic theory Lecture 79 - Hertzian Dipole Antenna
Link NOC:Electromagnetic theory Lecture 80 - Hertzian Dipole Antenna (Continued...)
Link NOC:Electromagnetic theory Lecture 81 - Quasi-statistics-I
Link NOC:Electromagnetic theory Lecture 82 - Quasi-statistics-II
Link NOC:Electromagnetic theory Lecture 83 - Long wire Antenna
Link NOC:Electromagnetic theory Lecture 84 - Group velocity and Phase velocity
Link NOC:Electromagnetic theory Lecture 85 - Numerical solution of Laplace's equation
Link NOC:Principles of Communication - Part 1 Lecture 1 - Basics - Definition of Energy and Power of Signals
Link NOC:Principles of Communication - Part 1 Lecture 2 - Frequency Domain Representation and Introduction to Discrete Fourier Series
Link NOC:Principles of Communication - Part 1 Lecture 3 - Discrete Fourier Series Example and Parseval's Theorem for Periodic Signals
Link NOC:Principles of Communication - Part 1 Lecture 4 - Fourier Transform (FT), Inverse Fourier Transform (IFT) of Continuous Signals, Example of FT of Pulse and Sinc Function
Link NOC:Principles of Communication - Part 1 Lecture 5 - Modulation Property of Fourier Transform, Dirac Delta or Unit Impulse Function - Definition and Fourier Transform
Link NOC:Principles of Communication - Part 1 Lecture 6 - Duality Property of Fourier Transform and Introduction to Linear Time Invatiant (LTI) Systems
Link NOC:Principles of Communication - Part 1 Lecture 7 - Transmission of Signal through Linear Time Invariant (LTI) Systems and Cross- Correlation of Signals
Link NOC:Principles of Communication - Part 1 Lecture 8 - Auto-Correlation of Signal and Energy Spectral Density (ESD)
Link NOC:Principles of Communication - Part 1 Lecture 9 - Example for Auto-Correlation of Signal and Energy Spectral Density (ESD)
Link NOC:Principles of Communication - Part 1 Lecture 10 - Introduction to Amplitude Modulation (AM), Modulation Index, Envelope Distortion and Over Modulation
Link NOC:Principles of Communication - Part 1 Lecture 11 - Spectrum of Amplitude Modulated(AM) Signals and Introduction to Envelope Detection
Link NOC:Principles of Communication - Part 1 Lecture 12 - Envelope Detection for Amplitude Modulated (AM) Signals and Time Constant for Capacitor in Envelope Detector
Link NOC:Principles of Communication - Part 1 Lecture 13 - Power of Amplitude Modulated (AM) Signals and Power Efficiency of AM Signals
Link NOC:Principles of Communication - Part 1 Lecture 14 - Double Sideband (DSB) Suppressed Carrier (SC) Modulation, Spectrum of DSB-SC Signals and Coherent Demodulation
Link NOC:Principles of Communication - Part 1 Lecture 15 - Double Sideband(DSB) Suppressed Carrier (SC) Demodulation, Non-coherent demodulation, Impact of Carrier Phase Offset
Link NOC:Principles of Communication - Part 1 Lecture 16 - Carrier Phase Offset Example for Double Sideband (DSB) Suppressed Carrier (SC) Demodulation- Wireless Cellular Communication with User Mobility
Link NOC:Principles of Communication - Part 1 Lecture 17 - Phase Synchronization using Costas Receiver for Double Sideband (DSB) Suppressed Carrier (SC) Demodulation
Link NOC:Principles of Communication - Part 1 Lecture 18 - Introduction to Quadrature Carrier Multiplexing (QCM) and Demodulation of QCM Signals.
Link NOC:Principles of Communication - Part 1 Lecture 19 - Introduction to Single Sideband (SSB) Modulation
Link NOC:Principles of Communication - Part 1 Lecture 20 - Generation of Single Sideband (SSB) Modulation Signals through Frequency Discrimination
Link NOC:Principles of Communication - Part 1 Lecture 21 - Frequency Domain Description of Hilbert Transform – Fourier Spectrum of the Hilbert Transformer
Link NOC:Principles of Communication - Part 1 Lecture 22 - Time Domain Description of Hilbert Transform – Impulse Response of the Hilbert Transformer
Link NOC:Principles of Communication - Part 1 Lecture 23 - Phase Shifting Method for Generation of Single Sideband (SSB) Modulated Signals based on Hilbert Transform
Link NOC:Principles of Communication - Part 1 Lecture 24 - Complex Pre-Envelope and Complex Envelope of Passband Signals
Link NOC:Principles of Communication - Part 1 Lecture 25 - Complex Pre- Envelope and Complex Envelope of QCM (Quadrature Carrier Modulated) Signals
Link NOC:Principles of Communication - Part 1 Lecture 26 - Introduction to Vestigial Side Band(VSB) Modulation and Non- Ideal Filtering, Spectral Efficiency
Link NOC:Principles of Communication - Part 1 Lecture 27 - Properties of Vestigial Side Band Filter for Reconstruction of Message Signal without Distortion
Link NOC:Principles of Communication - Part 1 Lecture 28 - Introduction to Angle Modulation, Description of Phase Modulation (PM) and Frequency Modulation (FM)
Link NOC:Principles of Communication - Part 1 Lecture 29 - Frequency Modulation (FM) with Sinusoidal Modulation Signal and Pictorial Examples, Insights of PM and FM signals
Link NOC:Principles of Communication - Part 1 Lecture 30 - Indirect Method for Generation of FM Signals - Generation of Narrowband FM Signal
Link NOC:Principles of Communication - Part 1 Lecture 31 - Indirect Method for Generation of FM Signals - Generation of Wideband FM Signal through Frequency Multiplication
Link NOC:Principles of Communication - Part 1 Lecture 32 - Spectrum of Frequency Modulated (FM) Signals
Link NOC:Principles of Communication - Part 1 Lecture 33 - Bandwidth of Frequency Modulated (FM) Signals - Carson's Rule
Link NOC:Principles of Communication - Part 1 Lecture 34 - Demodulation of Frequency Modulated (FM) Signals, Condition of Envelope Detection
Link NOC:Principles of Communication - Part 1 Lecture 35 - Analog to Digital Conversion of Signals and Introduction to Sampling
Link NOC:Principles of Communication - Part 1 Lecture 36 - Spectrum of Sampled Signal, Aliasing and Nyquist Sampling Theorem
Link NOC:Principles of Communication - Part 1 Lecture 37 - Ideal Impluse Train Sampling, Reconstruction of Original Signal from Samples, Sinc Interpolation
Link NOC:Principles of Communication - Part 1 Lecture 38 - Introduction to Pulse Amplitude Modulation (PAM), Sample and Hold, Flat Top Sampling
Link NOC:Principles of Communication - Part 1 Lecture 39 - Pulse Amplitude Modulation (PAM), Spectrum of PAM Signal , Reconstruction of Original Signal from PAM Signal, Equalization
Link NOC:Principles of Communication - Part 1 Lecture 40 - Introduction to Quantization, Uniform Quantizer, Mid- Tread Quantizer
Link NOC:Principles of Communication - Part 1 Lecture 41 - Quantization, Mid- Rise Quantizer, PDF and Power of Quantization Noise, Quantization Noise Power versus Quantizer Resolution
Link NOC:Principles of Communication - Part 1 Lecture 42 - Introduction to Lloyd- Max Quantization Algorithm, Optimal Quantizer Design
Link NOC:Principles of Communication - Part 1 Lecture 43 - Lloyd- Max Quantization Algorithm, Iterative Computation of Optimal Quantization Levels and Intervals
Link NOC:Principles of Communication - Part 1 Lecture 44 - Companding for Non- Uniform Quantization, Mu-law Compressor, A- Law Compressor
Link NOC:Principles of Communication - Part 1 Lecture 45 - Introduction to Delta Modulation, One-bit Quantizer
Link NOC:Principles of Communication - Part 1 Lecture 46 - Signal Reconstruction in Delta Modulation, Schematic Diagrams, Slope Overload Distortion and Granular Noise
Link NOC:Principles of Communication - Part 1 Lecture 47 - Differential Pulse Coded Modulation (DPCM), DPCM Signal Reconstruction and Schematic Diagram
Link NOC:Principles of Communication - Part 1 Lecture 48 - Frequency Mixing and Translation in Communication Systems, Heterodyne and Super Heterodyne Receivers
Link NOC:Principles of Communication - Part 1 Lecture 49 - Frequency Translation and Super Heterodyne Receivers, Problem of Image Frequency
Link NOC:Principles of Communication - Part 1 Lecture 50 - Frequency Division Multiplexing (FDM), Carrier Spacing in FDM
Link NOC:Principles of Communication - Part 1 Lecture 51 - Time Division Multiplexing (TDM), Operation of TDM, Sample Spacing in TDM
Link NOC:Principles of Communication - Part 1 Lecture 52 - Bandwidth Requirements for Time Division Multiplexing (TDM), The T1 TDM System : A Case Study
Link NOC:An Introduction to Coding Theory Lecture 1 - Introduction to Error Control Coding - I
Link NOC:An Introduction to Coding Theory Lecture 2 - Introduction to Error Control Coding - II
Link NOC:An Introduction to Coding Theory Lecture 3 - Introduction to Error Control Coding - III
Link NOC:An Introduction to Coding Theory Lecture 4 - Introduction to Linear Block Codes, Generator Matrix and Parity Check Matrix
Link NOC:An Introduction to Coding Theory Lecture 5 - Syndrome, Error Correction and Error Detection
Link NOC:An Introduction to Coding Theory Lecture 6 - Problem Solving Session - I
Link NOC:An Introduction to Coding Theory Lecture 7 - Decoding of Linear Block Codes
Link NOC:An Introduction to Coding Theory Lecture 8 - Distance Properties of Linear Block Codes - I
Link NOC:An Introduction to Coding Theory Lecture 9 - Distance Properties of Linear Block Codes - II
Link NOC:An Introduction to Coding Theory Lecture 10 - Problem Solving Session - II
Link NOC:An Introduction to Coding Theory Lecture 11 - Some Simple Linear Block Codes - I
Link NOC:An Introduction to Coding Theory Lecture 12 - Some Simple Linear Block Codes - II: Reed Muller Codes
Link NOC:An Introduction to Coding Theory Lecture 13 - Bounds on the Size of a Code
Link NOC:An Introduction to Coding Theory Lecture 14 - Problem Solving Session - III
Link NOC:An Introduction to Coding Theory Lecture 15 - Introduction to Convolutional Codes - I: Encoding
Link NOC:An Introduction to Coding Theory Lecture 16 - Introduction to Convolutional Codes - II: State Diagram, Trellis Diagram
Link NOC:An Introduction to Coding Theory Lecture 17 - Convolutional Codes: Classification, Realization
Link NOC:An Introduction to Coding Theory Lecture 18 - Convolutional Codes:Distance Properties
Link NOC:An Introduction to Coding Theory Lecture 19 - Decoding of Convolutional Codes - I: Viterbi Algorithm
Link NOC:An Introduction to Coding Theory Lecture 20 - Decoding of Convolutional Codes - II: BCJR Algorithm
Link NOC:An Introduction to Coding Theory Lecture 21 - Problem solving session - IV
Link NOC:An Introduction to Coding Theory Lecture 22 - Problem solving session - V
Link NOC:An Introduction to Coding Theory Lecture 23 - Performance Bounds for Convolutional Codes
Link NOC:An Introduction to Coding Theory Lecture 24 - Low Density Parity Check Codes
Link NOC:An Introduction to Coding Theory Lecture 25 - Decoding of Low Density Parity Check Codes - I
Link NOC:An Introduction to Coding Theory Lecture 26 - Decoding of Low Density Parity Check Codes - II: Belief Propagation Algorithm
Link NOC:An Introduction to Coding Theory Lecture 27 - Turbo Codes
Link NOC:An Introduction to Coding Theory Lecture 28 - Turbo Decoding
Link NOC:An Introduction to Coding Theory Lecture 29 - Problem Solving Sessions - VI
Link NOC:An Introduction to Coding Theory Lecture 30 - Distance Properties of Turbo Codes
Link NOC:An Introduction to Coding Theory Lecture 31 - Convergence of Turbo Codes
Link NOC:An Introduction to Coding Theory Lecture 32 - Automatic Repeat reQuest (ARQ) Schemes
Link NOC:An Introduction to Coding Theory Lecture 33 - Applications of Linear Codes
Link NOC:Principles of Communication Systems - Part II Lecture 1 - Introduction to Digital Communication Systems
Link NOC:Principles of Communication Systems - Part II Lecture 2 - Spectrum of Transmitted Digital Communication Signal and Wide Sense Stationarity
Link NOC:Principles of Communication Systems - Part II Lecture 3 - Spectrum of Transmitted Digital Communication Signal, Autocorrelation Function and Power Spectral Density
Link NOC:Principles of Communication Systems - Part II Lecture 4 - Spectrum of Transmitted Digital Communication Signal, Relation to Energy Spectral Density and Introduction to AWGN Channel
Link NOC:Principles of Communication Systems - Part II Lecture 5 - Additive White Gaussian Noise (AWGN) Properties, Gaussian Noise and White Noise
Link NOC:Principles of Communication Systems - Part II Lecture 6 - Structure of Digital Communication Receiver, Receiver Filter and Signal-to-Noise Power Ratio (SNR)
Link NOC:Principles of Communication Systems - Part II Lecture 7 - Digital Communication Receiver, Noise Properties and Output Noise Power
Link NOC:Principles of Communication Systems - Part II Lecture 8 - Digital Communication Receiver, Optimal SNR and Matched Filter
Link NOC:Principles of Communication Systems - Part II Lecture 9 - Probability of Error in Digital Communication and Probability Density Functions of Output
Link NOC:Principles of Communication Systems - Part II Lecture 10 - Probability of Error in Digital Communication, Optimal Decison Rule and Gaussian Q function
Link NOC:Principles of Communication Systems - Part II Lecture 11 - Introduction to Binary Phase Shift Keying (BPSK) Modulation, Optimal Decision Rule and Probability of Bit-Error or Bit-Error Rate (BER)
Link NOC:Principles of Communication Systems - Part II Lecture 12 - Introduction to Amplitude Shift Keying (ASK) Modulation
Link NOC:Principles of Communication Systems - Part II Lecture 13 - Optimal Decision Rule for Amplitude Shift Keying (ASK), Bit Error Rate (BER) and Comparison with Binary Phase Shift Keying (BPSK) Modulation
Link NOC:Principles of Communication Systems - Part II Lecture 14 - Introduction to Signal Space Concept and Orthonormal Basis Signals
Link NOC:Principles of Communication Systems - Part II Lecture 15 - Introduction to Frequency Shift Keying (FSK)
Link NOC:Principles of Communication Systems - Part II Lecture 16 - Optimal Decision Rule for FSK, Bit Error Rate (BER) and Comparison with BPSK, ASK
Link NOC:Principles of Communication Systems - Part II Lecture 17 - Introduction to Quadrature Phase Shift Keying (QPSK)
Link NOC:Principles of Communication Systems - Part II Lecture 18 - Waveforms of Quadrature Phase Shift Keying (QPSK)
Link NOC:Principles of Communication Systems - Part II Lecture 19 - Matched Filtering, Bit Error Rate and Symbol Error Rate for Quadrature Phase Shift Keying (QPSK)
Link NOC:Principles of Communication Systems - Part II Lecture 20 - Introduction to M-ary PAM (Pulse Amplitude Modulation), Average Symbol Power and Decision rules
Link NOC:Principles of Communication Systems - Part II Lecture 21 - M-ary PAM (Pulse Amplitude Modulation) -Part-II, Optimal Decision Rule and Probability of Error
Link NOC:Principles of Communication Systems - Part II Lecture 22 - M-ary QAM (Quadrature Amplitude Modulation) Part-I, Introduction, Transmitted Waveform and Average Symbol Energy
Link NOC:Principles of Communication Systems - Part II Lecture 23 - M-ary QAM (Quadrature Amplitude Modulation) - Part-II, Optimal Decision Rule, Probability of Error and Contellation Diagram
Link NOC:Principles of Communication Systems - Part II Lecture 24 - M-ary PSK (Phase Shift Keying) Part-I, Introduction , Transmitted Waveform and Constellation Diagram
Link NOC:Principles of Communication Systems - Part II Lecture 25 - M-ary PSK (Phase Shift Keying) - Part-II, Optimal Decision Rule, Nearest Neighbor Criterion and Approximate Probability of Error
Link NOC:Principles of Communication Systems - Part II Lecture 26 - Introduction to Information Theory, Relevance of Information Theory and Characterization of Information
Link NOC:Principles of Communication Systems - Part II Lecture 27 - Definition of Entropy, Average of Information / Uncertainity of source and Properties of Entropy
Link NOC:Principles of Communication Systems - Part II Lecture 28 - Entropy Example- Binary Source Maximum and Minimum Entropy of Binary Source
Link NOC:Principles of Communication Systems - Part II Lecture 29 - Maximum Entropy of Source with M-ary Alphabet, Concave/Convex Functions and Jensens Inequality
Link NOC:Principles of Communication Systems - Part II Lecture 30 - Joint Entropy , Definition of Joint Entropy of Two Sources and Simple Examples for Joint Entropy Computation
Link NOC:Principles of Communication Systems - Part II Lecture 31 - Properties of Joint Entropy and Relation between Joint Entropy and Marginal Entropies
Link NOC:Principles of Communication Systems - Part II Lecture 32 - Conditional Entropy, Example of Conditional Entropy and Properties of Conditional Entropy
Link NOC:Principles of Communication Systems - Part II Lecture 33 - Mutual Information, Diagrammatic Representation and Properties of Mutual Information
Link NOC:Principles of Communication Systems - Part II Lecture 34 - Simple Example of Mutual Information and Practical Example of Mutual Information-Binary Symmetric Channel
Link NOC:Principles of Communication Systems - Part II Lecture 35 - Channel Capacity, Implications of Channel Capacity, Claude E. Shannon- Father of Information Theory and Example of Capacity of Binary Symmetric Channel
Link NOC:Principles of Communication Systems - Part II Lecture 36 - Differential Entropy and Example for Uniform Probability Density function
Link NOC:Principles of Communication Systems - Part II Lecture 37 - Differential Entropy of Gaussian Source and Insights
Link NOC:Principles of Communication Systems - Part II Lecture 38 - Joint Conditional/ Differential Entropies and Mutual Information
Link NOC:Principles of Communication Systems - Part II Lecture 39 - Capacity of Gaussian channel - Part I
Link NOC:Principles of Communication Systems - Part II Lecture 40 - Capacity of Gaussian Channel - Part-II, Practical Implications and Maximum rate in bits\sec
Link NOC:Principles of Communication Systems - Part II Lecture 41 - Introduction to Source Coding and Data Compression, Variable Length codes and Unique Decodability
Link NOC:Principles of Communication Systems - Part II Lecture 42 - Uniquely Decodable Codes, Prefix-free code, Instantaneous Code and Average Code length
Link NOC:Principles of Communication Systems - Part II Lecture 43 - Binary Tree Representation of Code, Example and Kraft Inequality
Link NOC:Principles of Communication Systems - Part II Lecture 44 - Lower Bound on Average Code Length and Kullback-Leibler Divergence
Link NOC:Principles of Communication Systems - Part II Lecture 45 - Optimal Code length, Constrained Optimization and Morse Code Example
Link NOC:Principles of Communication Systems - Part II Lecture 46 - Approaching Lower Bound on Average code length and Block Coding
Link NOC:Principles of Communication Systems - Part II Lecture 47 - Huffman Code, Algorithm, Example and Average Code Length
Link NOC:Principles of Communication Systems - Part II Lecture 48 - Introduction to channel coding, Rate of Code, Repetition Code and Hamming Distance
Link NOC:Principles of Communication Systems - Part II Lecture 49 - Introduction to Convolutional Codes, Binary Field Arithmetic and Linear Codes
Link NOC:Principles of Communication Systems - Part II Lecture 50 - Example of Convolutional Code Output and Convolution Operation for Code generation
Link NOC:Principles of Communication Systems - Part II Lecture 51 - Matrix Representation of Convolutional Codes, Generator Matrix, Transform Domain Representation and Shift Register Architecture
Link NOC:Principles of Communication Systems - Part II Lecture 52 - State Diagram Representation of Convolutional Code, State transitions and Example of Code Generation using State transitions
Link NOC:Principles of Communication Systems - Part II Lecture 53 - Trellis Representation of Convolutional Code and Valid Code Words
Link NOC:Principles of Communication Systems - Part II Lecture 54 - Decoding of the Convolutional Code, Minimum Hamming distance and Maximum Likelihood Codeword Estimate
Link NOC:Principles of Communication Systems - Part II Lecture 55 - Principle of Decoding of Convolutional code
Link NOC:Principles of Communication Systems - Part II Lecture 56 - Viterbi Decoder for Maximum Likelihood Decoding of Convolutional Code Using Trellis Representation, Branch Metric Calculation, State Metric Calculation and Example
Link NOC:Applied Engineering Electromagnetics Lecture 1 - Introduction to Applied Elecromagnetics
Link NOC:Applied Engineering Electromagnetics Lecture 2 - Introduction to Transmission lines
Link NOC:Applied Engineering Electromagnetics Lecture 3 - Sinusoidal waves on Transmission lines
Link NOC:Applied Engineering Electromagnetics Lecture 4 - Terminating T-lines: Reflection and Transmission coefficient
Link NOC:Applied Engineering Electromagnetics Lecture 5 - Circuit parameters of a T-line
Link NOC:Applied Engineering Electromagnetics Lecture 6 - Lossy Transmission lines and primary constants
Link NOC:Applied Engineering Electromagnetics Lecture 7 - When to apply T-line Theory?
Link NOC:Applied Engineering Electromagnetics Lecture 8 - Standing Waves on T-lines
Link NOC:Applied Engineering Electromagnetics Lecture 9 - Lumped equivalent circuits of T-lines
Link NOC:Applied Engineering Electromagnetics Lecture 10 - Impedance transformation and power flow on T-lines
Link NOC:Applied Engineering Electromagnetics Lecture 11 - Graphical aid: Smith Chart Derivation
Link NOC:Applied Engineering Electromagnetics Lecture 12 - Smith chart applications
Link NOC:Applied Engineering Electromagnetics Lecture 13 - Further applications of Smith chart - Part 1
Link NOC:Applied Engineering Electromagnetics Lecture 14 - Further applications of Smith chart - Part 2
Link NOC:Applied Engineering Electromagnetics Lecture 15 - Impedance matching techniques - Part 1
Link NOC:Applied Engineering Electromagnetics Lecture 16 - Impedance matching techniques - Part 2
Link NOC:Applied Engineering Electromagnetics Lecture 17 - Impedance matching techniques - Part 3
Link NOC:Applied Engineering Electromagnetics Lecture 18 - T-lines in time domain: Lattice diagrams
Link NOC:Applied Engineering Electromagnetics Lecture 19 - Further examples of use of lattice diagrams
Link NOC:Applied Engineering Electromagnetics Lecture 20 - High-speed digital signal propagation on T-lines
Link NOC:Applied Engineering Electromagnetics Lecture 21 - Transient analysis with reactive termination and Time-domain reflectometry
Link NOC:Applied Engineering Electromagnetics Lecture 22 - Fault detection using TDR
Link NOC:Applied Engineering Electromagnetics Lecture 23 - Why Electromagnetics?
Link NOC:Applied Engineering Electromagnetics Lecture 24 - Rectangular coordinate systems
Link NOC:Applied Engineering Electromagnetics Lecture 25 - Cylindrical coordinate systems
Link NOC:Applied Engineering Electromagnetics Lecture 26 - Review of vector fields and Gradient
Link NOC:Applied Engineering Electromagnetics Lecture 27 - Divergence, Curl, and Laplacian operations
Link NOC:Applied Engineering Electromagnetics Lecture 28 - Towards Maxwells equations - Part 1
Link NOC:Applied Engineering Electromagnetics Lecture 29 - Towards Maxwells equations - Part 2
Link NOC:Applied Engineering Electromagnetics Lecture 30 - Faradays law
Link NOC:Applied Engineering Electromagnetics Lecture 31 - Completing Maxwells equations and Boundary conditions
Link NOC:Applied Engineering Electromagnetics Lecture 32 - Boundary conditions for Electromagnetic fields
Link NOC:Applied Engineering Electromagnetics Lecture 33 - Electrostatics-I: Laplace and Poissons equations
Link NOC:Applied Engineering Electromagnetics Lecture 34 - Electrostatics-II: Solving Laplaces equation in 1D
Link NOC:Applied Engineering Electromagnetics Lecture 35 - Electrostatics-III: Solving Laplaces equation in 2D
Link NOC:Applied Engineering Electromagnetics Lecture 36 - Electrostatics-IV: Finite Difference method for solving Laplaces equation
Link NOC:Applied Engineering Electromagnetics Lecture 37 - Magnetostatic fields-I: Biot-Savart Law
Link NOC:Applied Engineering Electromagnetics Lecture 38 - Magnetostatic fields-II: Calculation of magnetic fields
Link NOC:Applied Engineering Electromagnetics Lecture 39 - Inductance calculations
Link NOC:Applied Engineering Electromagnetics Lecture 40 - From Maxwells equations to uniform plane waves
Link NOC:Applied Engineering Electromagnetics Lecture 41 - Plane wave propagation in lossless dielectric media
Link NOC:Applied Engineering Electromagnetics Lecture 42 - Polarization of plane waves
Link NOC:Applied Engineering Electromagnetics Lecture 43 - Can an Ideal capacitor exist?
Link NOC:Applied Engineering Electromagnetics Lecture 44 - Skin effect in conductors
Link NOC:Applied Engineering Electromagnetics Lecture 45 - Skin effect in round wires
Link NOC:Applied Engineering Electromagnetics Lecture 46 - Finite difference method
Link NOC:Applied Engineering Electromagnetics Lecture 47 - Reflection of uniform plane waves
Link NOC:Applied Engineering Electromagnetics Lecture 48 - Application: Reflection from multiple media and anti-reflection coating.
Link NOC:Applied Engineering Electromagnetics Lecture 49 - Oblique incidence of plane waves
Link NOC:Applied Engineering Electromagnetics Lecture 50 - Total internal reflection
Link NOC:Applied Engineering Electromagnetics Lecture 51 - Application: Matrix analysis of reflection from multiple boundaries
Link NOC:Applied Engineering Electromagnetics Lecture 52 - Application: Fabry-Perot cavity and Multi-layer films
Link NOC:Applied Engineering Electromagnetics Lecture 53 - Introduction to waveguides
Link NOC:Applied Engineering Electromagnetics Lecture 54 - Rectangular waveguides
Link NOC:Applied Engineering Electromagnetics Lecture 55 - Attenuation and Dispersion in rectangular waveguides
Link NOC:Applied Engineering Electromagnetics Lecture 56 - Planar optical waveguides
Link NOC:Applied Engineering Electromagnetics Lecture 57 - Application: Optical Fibers
Link NOC:Applied Engineering Electromagnetics Lecture 58 - Application: WDM Optical Components
Link NOC:Applied Engineering Electromagnetics Lecture 59 - Mach-Zehnder Modulator
Link NOC:Applied Engineering Electromagnetics Lecture 60 - Wave Propagation in Anisotropic Medium
Link NOC:Applied Engineering Electromagnetics Lecture 61 - Wave Propagation in Ferrites
Link NOC:Applied Engineering Electromagnetics Lecture 62 - Magnetic Vector Potential - Part 1
Link NOC:Applied Engineering Electromagnetics Lecture 63 - Magnetic Vector Potential - Part 2
Link NOC:Applied Engineering Electromagnetics Lecture 64 - Fields of a Dipole Antenna
Link NOC:Applied Engineering Electromagnetics Lecture 65 - Antenna Parameters and Long wire Antenna
Link NOC:Applied Engineering Electromagnetics Lecture 66 - Friis Transmission Formula
Link NOC:Principles of Signals and Systems Lecture 1 - Principles of Signals and Systems- Introduction to Signals and Systems, Signal Classification - Continuous and Discrete Time Signals
Link NOC:Principles of Signals and Systems Lecture 2 - Analog and Digital Signals
Link NOC:Principles of Signals and Systems Lecture 3 - Energy and Power Signals
Link NOC:Principles of Signals and Systems Lecture 4 - Real Exponential Signals
Link NOC:Principles of Signals and Systems Lecture 5 - Memory/Memory-less and Causal/Non-Causal Systems
Link NOC:Principles of Signals and Systems Lecture 6 - Properties of Linear Systems
Link NOC:Principles of Signals and Systems Lecture 7 - Example Problems - 1
Link NOC:Principles of Signals and Systems Lecture 8 - Example Problems - 2
Link NOC:Principles of Signals and Systems Lecture 9 - Example Problems - 3
Link NOC:Principles of Signals and Systems Lecture 10 - Properties and Analysis of LTI Systems - I
Link NOC:Principles of Signals and Systems Lecture 11 - Properties and Analysis of LTI Systems - II
Link NOC:Principles of Signals and Systems Lecture 12 - Properties and Analysis of LTI Systems - III
Link NOC:Principles of Signals and Systems Lecture 13 - Properties of Discrete Time LTI Systems
Link NOC:Principles of Signals and Systems Lecture 14 - Example Problems LTI Systems - I
Link NOC:Principles of Signals and Systems Lecture 15 - Example Problems LTI Systems - II
Link NOC:Principles of Signals and Systems Lecture 16 - Example Problems DT-LTI Systems
Link NOC:Principles of Signals and Systems Lecture 17 - Laplace Transform
Link NOC:Principles of Signals and Systems Lecture 18 - Laplace Transform Properties - I
Link NOC:Principles of Signals and Systems Lecture 19 - Laplace Transform Properties - II
Link NOC:Principles of Signals and Systems Lecture 20 - Laplace Transform of LTI Systems
Link NOC:Principles of Signals and Systems Lecture 21 - Laplace Transform Example Problems - I
Link NOC:Principles of Signals and Systems Lecture 22 - Laplace Transform Example Problems - II
Link NOC:Principles of Signals and Systems Lecture 23 - Laplace Transform of RL, RC Circuit
Link NOC:Principles of Signals and Systems Lecture 24 - Z-Transform
Link NOC:Principles of Signals and Systems Lecture 25 - Z-Transform Properties - I
Link NOC:Principles of Signals and Systems Lecture 26 - Z-Transform Properties - II
Link NOC:Principles of Signals and Systems Lecture 27 - Z-Transform of LTI Systems
Link NOC:Principles of Signals and Systems Lecture 28 - Z-Transform Examples - I
Link NOC:Principles of Signals and Systems Lecture 29 - Z-Transform Examples - II
Link NOC:Principles of Signals and Systems Lecture 30 - Z-Transform Examples - III
Link NOC:Principles of Signals and Systems Lecture 31 - Z-Transform Examples - IV
Link NOC:Principles of Signals and Systems Lecture 32 - Inverse Z-Transform
Link NOC:Principles of Signals and Systems Lecture 33 - Fourier Analysis Introduction
Link NOC:Principles of Signals and Systems Lecture 34 - Complex Exponential and Trigonometric FS
Link NOC:Principles of Signals and Systems Lecture 35 - Conditions for Existence of FS
Link NOC:Principles of Signals and Systems Lecture 36 - Fourier Transform (FT) Introduction
Link NOC:Principles of Signals and Systems Lecture 37 - Properties of Fourier Transform - I
Link NOC:Principles of Signals and Systems Lecture 38 - Properties of Fourier Transform - II
Link NOC:Principles of Signals and Systems Lecture 39 - Fourier Transform - Parseval’s Relation
Link NOC:Principles of Signals and Systems Lecture 40 - Fourier Transform of LTI Systems
Link NOC:Principles of Signals and Systems Lecture 41 - FT- Ideal and Non-Ideal Filters
Link NOC:Principles of Signals and Systems Lecture 42 - Fourier Analysis Examples - I
Link NOC:Principles of Signals and Systems Lecture 43 - Fourier Analysis Examples - II
Link NOC:Principles of Signals and Systems Lecture 44 - Fourier Analysis Examples - III
Link NOC:Principles of Signals and Systems Lecture 45 - Fourier Analysis Examples - IV
Link NOC:Principles of Signals and Systems Lecture 46 - Fourier Analysis Examples - V
Link NOC:Principles of Signals and Systems Lecture 47 - Fourier Analysis Examples - VI
Link NOC:Principles of Signals and Systems Lecture 48 - Fourier Analysis Bode Plot - I
Link NOC:Principles of Signals and Systems Lecture 49 - Fourier Analysis Bode Plot - II
Link NOC:Principles of Signals and Systems Lecture 50 - Fourier Transform Examples: Filtering - Ideal Low Pass Filter
Link NOC:Principles of Signals and Systems Lecture 51 - Fourier Transform Problems: Unit Step Response of RC Circuit, Sampling of Continuous Signal
Link NOC:Principles of Signals and Systems Lecture 52 - Sampling: Spectrum of Sampled Signal, Nyquist Criterion
Link NOC:Principles of Signals and Systems Lecture 53 - Sampling: Reconstruction from Sampled Signal
Link NOC:Principles of Signals and Systems Lecture 54 - Fourier Analysis of Discrete Time Signals and Systems - Introduction
Link NOC:Principles of Signals and Systems Lecture 55 - Fourier Analysis of Discrete Time Signals - Duality, Parseval’s Theorem
Link NOC:Principles of Signals and Systems Lecture 56 - Discrete Time Fourier Transform: Definition, Inverse DTFT, Convergence, Relation between DTFT and z-Transform, DTFT of Common Signals
Link NOC:Principles of Signals and Systems Lecture 57 - Discrete Time Fourier Transform: Properties of DTFT - Linearity, Time Shifting, Frequency Shifting, Conjugation, Time-Reversal, Duality
Link NOC:Principles of Signals and Systems Lecture 58 - Discrete Time Fourier Transform: Properties of DTFT - Differentiation in Frequency, Difference in Time, Convolution, Multiplication, Parseval’s Relation
Link NOC:Principles of Signals and Systems Lecture 59 - DTFT: Discrete Time LTI Systems - LTI Systems Characterized by Difference Equations
Link NOC:Principles of Signals and Systems Lecture 60 - Discrete Fourier Transform - Definition, Inverse DFT, Relation between DFT and DFS, Relation between DFT and DTFT, Properties - Linearity, Time Shifting
Link NOC:Principles of Signals and Systems Lecture 61 - Discrete Fourier Transform: Properties - Conjugation, Frequency Shift, Duality, Circular Convolution, Multiplication, Parseval’s Relation, Example Problems for Fourier Analysis of Discrete Time Signals
Link NOC:Principles of Signals and Systems Lecture 62 - Example Problems: DFS Analysis of Discrete Time Signals, Problems on DTFT
Link NOC:Principles of Signals and Systems Lecture 63 - Example Problems: DTFT of Cosine, Unit Step Signals
Link NOC:Principles of Signals and Systems Lecture 64 - DTFT Example Problems - III
Link NOC:Principles of Signals and Systems Lecture 65 - DTFT Example Problems - IV
Link NOC:Principles of Signals and Systems Lecture 66 - DTFT Example Problems - V
Link NOC:Principles of Signals and Systems Lecture 67 - DFT Example Problems - I
Link NOC:Principles of Signals and Systems Lecture 68 - Example Problems: DFT, IDFT in Matrix form
Link NOC:Principles of Signals and Systems Lecture 69 - Group/Phase Delay - Part I
Link NOC:Principles of Signals and Systems Lecture 70 - Group/Phase Delay - Part II
Link NOC:Principles of Signals and Systems Lecture 71 - IIR Filter Structures: DF-I, DF-II
Link NOC:Principles of Signals and Systems Lecture 72 - IIR Filter Structures: Transpose Form
Link NOC:Principles of Signals and Systems Lecture 73 - IIR Filter Structures: Example
Link NOC:Principles of Signals and Systems Lecture 74 - IIR Filter Structures: Cascade Form
Link NOC:Principles of Signals and Systems Lecture 75 - IIR Filter: Parallel Form-I and II
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 1 - Vectors and Matrices - Linear Independence and Rank
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 2 - Eigenvectors and Eigenvalues of Matrices and their Properties
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 3 - Positive Semidefinite (PSD) and Postive Definite (PD) Matrices and their Properties
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 4 - Inner Product Space and it's Properties: Linearity, Symmetry and Positive Semi-definite
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 5 - Inner Product Space and it's Properties: Cauchy Schwarz Inequality
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 6 - Properties of Norm, Gaussian Elimination and Echleon form of matrix
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 7 - Gram Schmidt Orthogonalization Procedure
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 8 - Null Space and Trace of Matrices
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 9 - Eigenvalue Decomposition of Hermitian Matrices and Properties
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 10 - Matrix Inversion Lemma (Woodbury identity)
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 11 - Introduction to Convex Sets and Properties
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 12 - Affine Set Examples and Application
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 13 - Norm Ball and its Practical Applications
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 14 - Ellipsoid and its Practical Applications
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 15 - Norm Cone,Polyhedron and its Applications
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 16 - Applications: Cooperative Cellular Transmission
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 17 - Positive Semi Definite Cone And Positive Semi Definite (PSD) Matrices
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 18 - Introduction to Affine functions and examples
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 19 - norm balls and Matrix properties:Trace,Determinant
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 20 - Inverse of a Positive Definite Matrix
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 21 - Example Problems: Property of Norms,Problems on Convex Sets
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 22 - Problems on Convex Sets (Continued...)
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 23 - Introduction to Convex and Concave Functions
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 24 - Properties of Convex Functions with examples
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 25 - Test for Convexity: Positive Semidefinite Hessian Matrix
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 26 - Application: MIMO Receiver Design as a Least Squares Problem
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 27 - Jensen's Inequality and Practical Application
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 28 - Jensen's Inequality application
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 29 - Properties of Convex Functions
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 30 - Conjugate Function and Examples to prove Convexity of various Functions
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 31 - Examples on Operations Preserving Convexity
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 32 - Examples on Test for Convexity, Quasi-Convexity
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 33 - Examples on Convex Functions
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 34 - Practical Application: Beamforming in Multi-antenna Wireless Communication
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 35 - Practical Application: Maximal Ratio Combiner for Wireless Systems
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 36 - Practical Application: Multi-antenna Beamforming with Interfering User
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 37 - Practical Application: Zero-Forcing (ZF) Beamforming with Interfering User
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 38 - Practical Application: Robust Beamforming With Channel Uncertainity for Wireless Systems
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 39 - Practical Application: Robust Beamformer Design for Wireless Systems
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 40 - Practical Application: Detailed Solution for Robust Beamformer Computation in Wireless Systems Text
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 41 - Linear modeling and Approximation Problems: Least Squares
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 42 - Geometric Intuition for Least Squares
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 43 - Practical Application: Multi antenna channel estimation
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 44 - Practical Application:Image deblurring
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 45 - Least Norm Signal Estimation
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 46 - Regularization: Least Squares + Least Norm
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 47 - Convex Optimization Problem representation: Canonical form, Epigraph form
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 48 - Linear Program Practical Application: Base Station Co-operation
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 49 - Stochastic Linear Program,Gaussian Uncertainty
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 50 - Practical Application: Multiple Input Multiple Output (MIMO) Beamforming
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 51 - Practical Application: Multiple Input Multiple Output (MIMO) Beamformer Design
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 52 - Practical Application: Co-operative Communication, Overview and various Protocols used
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 53 - Practical Application: Probability of Error Computation for Co-operative Communication
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 54 - Practical Application:Optimal power allocation factor determination for Co-operative Communication
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 55 - Practical Application: Compressive Sensing
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 56 - Practical Application
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 57 - Practical Application- Orthogonal Matching Pursuit (OMP) algorithm for Compressive Sensing
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 58 - Example Problem: Orthogonal Matching Pursuit (OMP) algorithm
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 59 - Practical Application : L1 norm minimization and regularization approach for Compressive Sensing Optimization problem
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 60 - Practical Application of Machine Learning and Artificial Intelligence:Linear Classification, Overview and Motivation
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 61 - Practical Application: Linear Classifier (Support Vector Machine) Design
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 62 - Practical Application: Approximate Classifier Design
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 63 - Concept of Duality
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 64 - Relation between optimal value of Primal and Dual Problems, concepts of Duality gap and Strong Duality
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 65 - Example problem on Strong Duality
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 66 - Karush-Kuhn-Tucker (KKT) conditions
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 67 - Application of KKT condition:Optimal MIMO power allocation (Waterfilling)
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 68 - Optimal MIMO Power allocation (Waterfilling)-II
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 69 - Example problem on Optimal MIMO Power allocation (Waterfilling)
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 70 - Linear objective with box constraints, Linear Programming
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 71 - Example Problems II
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 72 - Examples on Quadratic Optimization
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 73 - Examples on Duality: Dual Norm, Dual of Linear Program (LP)
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 74 - Examples on Duality: Min-Max problem, Analytic Centering
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 75 - Semi Definite Program (SDP) and its application:MIMO symbol vector decoding
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 76 - Application:SDP for MIMO Maximum Likelihood (ML) Detection
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 77 - Introduction to big Data: Online Recommender System (Netflix)
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 78 - Matrix Completion Problem in Big Data: Netflix-I
Link NOC:Applied Optimization for Wireless, Machine Learning, Big Data Lecture 79 - Matrix Completion Problem in Big Data: Netflix-II
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 1 - Overview of fiber-optic communication systems
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 2 - Review of Maxwell’s equations
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 3 - Uniform plane waves (UWPs) in free-space
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 4 - Properties of UWPs (propagation constant, polarization, and Poynting vector)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 5 - Boundary conditions and reflection from a PEC
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 6 - Obliquely incident waves-I (TE and TM waves, Snell’s laws)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 7 - Obliquely incident waves-II (Reflection and transmission coefficients, Brewster angle)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 8 - Total internal reflection
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 9 - Ray theory of dielectric slab waveguides
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 10 - Transverse resonance condition for slab waveguides
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 11 - Introduction to optical fibers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 12 - Ray theory of light propagation in optical fibers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 13 - Concept of waveguide modes
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 14 - Systematic procedure to obtain modes of a waveguide
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 15 - Systematic analysis of parallel plate metallic waveguide
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 16 - Systematic analysis of dielectric slab waveguides
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 17 - Further discussion on slab waveguides
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 18 - Modal analysis of step index optical fiber
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 19 - Properties of modes of step-index optical fiber - I
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 20 - Properties of modes of step-index optical fiber - II
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 21 - Linearly polarized modes
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 22 - Attenuation and power loss in fibers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 23 - Introduction to dispersion in fibers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 24 - Mathematical modelling of dispersion: Transfer function approach
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 25 - Pulse propagation equation and its solution
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 26 - Pre-chirped pulses and Inter and Intra-modal dispersion in optical fibers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 27 - Beam Propagation Method
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 28 - Polarization Effects on Pulse Propagation
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 29 - Modes in Optical Fibres and Pulse Propagation in Optical Fibres
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 30 - Graded Index Fibers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 31 - Light Sources, Detectors and Amplifiers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 32 - Basics of Lasers-I (Structure of Lasers, Process of Photon Emission)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 33 - Basics of Lasers-II (Einstein's Theory of Radiation)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 34 - Basics of Lasers-III (Population Inversion and Rate Equation for Lasers)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 35 - Basic Properties of Semiconductor Laser-I (Energy Gap, Intrinsic and Extrinsic Semiconductors)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 36 - Basic Properties of Semiconductor Laser-II (Fermi Level)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 37 - Optical Properties of Semiconductors-I (Direct Bandgap and Indirect Bandgap, Density of States)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 38 - Optical Properties of Semiconductors-II (Gain, Absorption, Recombination rate) Homojunction Lasers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 39 - Double Heterostructure Lasers, Introduction to Quantum Well Lasers
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 40 - Semiconductor Optical Amplifier
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 41 - Erbium-doped fiber amplifier
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 42 - Photodetectors
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 43 - Noise in Photodetectors
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 44 - Introduction to WDM components
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 45 - Couplers, Circulators, FRM and Filters
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 46 - Filter, MUX/DEMUX, Diffraction grating (FBG and Long period grating)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 47 - Optical Modulators-I (Current modulation)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 48 - Optical Modulators-II (Electro-optic modulators)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 49 - Review of Communication Concepts-I (Deterministic and Random Signals, Baseband and Passband Signals)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 50 - Review of Communication Concepts-II (Signal and vectors, Signal energy, Orthonormal basis functions)
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 51 - Intensity modulation/ Direct Detection
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 52 - BER discussion for OOK systems
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 53 - Higher order modulation and Coherent Receiver
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 54 - Coherent receiver for BPSK systems and BER calculation
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 55 - Recovering Polarization
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 56 - DSP algorithms for Chromatic dispersion mitigation
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 57 - DSP algorithms for Carrier phase estimation - I
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 58 - DSP algorithms for Carrier phase estimation - II
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 59 - Nonlinear effects in fiber
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 60 - Four wave mixing, Loss measurement, Dispersion measurement
Link NOC:Fiber-Optic Communication Systems and Techniques Lecture 61 - Lab Demonstration (Laser diode characteristics, Loss measurement, Optical Intensity Modulation)
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 1 - Introduction and Types of Transmission Lines
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 2 - Distributed Circuit Model of Uniform Transmission Line
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 3 - Voltage and Current Equation of the Transmission line
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 4 - Sinusoidal Excitation of Transmission Line (Propagation constant, Characteristic Impedance)
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 5 - Properties of Transmission Line (Reflection Coefficient, Input Impedance, Standing Wave Ratio)
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 6 - Power Calculations and Introduction to Smith Chart
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 7 - Smith Chart
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 8 - Additional Applications of Smith Chart
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 9 - Time domain Analysis of Transmission Line - I
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 10 - Time domain Analysis of Transmission Line - II
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 11 - Usage of Lattice Diagrams
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 12 - TDR analysis of Transmission Lines
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 13 - Introduction to Propagation of Electromagnetic Waves
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 14 - Uniform Plane Waves - I
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 15 - Uniform Plane Waves - II
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 16 - Poynting Vector, Average Power, Polarization
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 17 - Uniform Plane Waves in Lossy Medium
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 18 - Normal Incidence of Plane Waves
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 19 - Oblique Incidence of Plane Waves - I
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 20 - Oblique Incidence of Plane Waves - II
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 21 - Total Internal Reflection
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 22 - Slab Waveguides
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 23 - Optical Fibers
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 24 - Parallel Plate Waveguides
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 25 - Rectangular Waveguides
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 26 - Modes of Rectangular Waveguides
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 27 - Waveguides summary and Introduction to Radiation
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 28 - Solution to Electric Scalar Potential and Magnetic Vector Potential Equations
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 29 - Further discussion on Magnetic Vector Potential and Elementary Hertzian Dipole
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 30 - Near field and Far-field Antenna and Properties of Antennas
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 31 - Linear antenna - I
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 32 - Linear antenna - II and Properties of Transmitting and Receiving Antenna
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 33 - Friis Transmission Formula
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 34 - Antenna Array
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 35 - Wireless Channel
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 36 - Further discussion on Wireless Channel Modelling
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 37 - Diffraction - I
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 38 - Diffraction - II
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 39 - Distribution of Laser Beam
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 40 - Interference (Double slit experiment, Fabry Perot Interferometer)
Link NOC:Electromagnetic Waves in Guided and Wireless Media Lecture 41 - Summary
Link NOC:Basic Electric Circuits Lecture 1 - Basic Concepts
Link NOC:Basic Electric Circuits Lecture 2 - Sinusoids and Phasors
Link NOC:Basic Electric Circuits Lecture 3 - Circuit Elements - Part 1
Link NOC:Basic Electric Circuits Lecture 4 - Circuit Elements - Part 2
Link NOC:Basic Electric Circuits Lecture 5 - AC Power Analysis
Link NOC:Basic Electric Circuits Lecture 6 - RMS Voltage and Current
Link NOC:Basic Electric Circuits Lecture 7 - Topology
Link NOC:Basic Electric Circuits Lecture 8 - Star-Delta Transformation and Mesh Analysis
Link NOC:Basic Electric Circuits Lecture 9 - Mesh Analysis.
Link NOC:Basic Electric Circuits Lecture 10 - Nodal Analysis
Link NOC:Basic Electric Circuits Lecture 11 - Linearity Property and Superposition Theorem
Link NOC:Basic Electric Circuits Lecture 12 - Source Transformation
Link NOC:Basic Electric Circuits Lecture 13 - Duality
Link NOC:Basic Electric Circuits Lecture 14 - Thevenin's Theorem - 1
Link NOC:Basic Electric Circuits Lecture 15 - Thevenin's Theorem - 2
Link NOC:Basic Electric Circuits Lecture 16 - Norton's Theorem - 1
Link NOC:Basic Electric Circuits Lecture 17 - Norton's Theorem - 2
Link NOC:Basic Electric Circuits Lecture 18 - Maximum Power Transfer Theorem - 1
Link NOC:Basic Electric Circuits Lecture 19 - Maximum Power Transfer Theorem - 2
Link NOC:Basic Electric Circuits Lecture 20 - Reciprocity and Compensation Theorem
Link NOC:Basic Electric Circuits Lecture 21 - First Order RC Circuits
Link NOC:Basic Electric Circuits Lecture 22 - First Order RL Circuits
Link NOC:Basic Electric Circuits Lecture 23 - Singularity Functions
Link NOC:Basic Electric Circuits Lecture 24 - Step Response of RC and RL Circuits
Link NOC:Basic Electric Circuits Lecture 25 - Second Order Response
Link NOC:Basic Electric Circuits Lecture 26 - Step Response of Second Order Circuits-First Order and Second Order Circuits (Continued...)
Link NOC:Basic Electric Circuits Lecture 27 - Step Response of Parallel RLC Circuit-First Order and Second Order Circuits (Continued...)
Link NOC:Basic Electric Circuits Lecture 28 - Definition of the Laplace Transform
Link NOC:Basic Electric Circuits Lecture 29 - Properties of the Laplace Transform
Link NOC:Basic Electric Circuits Lecture 30 - Inverse Laplace Transform
Link NOC:Basic Electric Circuits Lecture 31 - Laplace Transform of Circuit Elements
Link NOC:Basic Electric Circuits Lecture 32 - Transfer Function
Link NOC:Basic Electric Circuits Lecture 33 - Convolution Integral
Link NOC:Basic Electric Circuits Lecture 34 - Graphical Approach of Convolution Integral
Link NOC:Basic Electric Circuits Lecture 35 - Network Stability and Network Synthesis
Link NOC:Basic Electric Circuits Lecture 36 - Impedance Parameters
Link NOC:Basic Electric Circuits Lecture 37 - Admittance Parameters
Link NOC:Basic Electric Circuits Lecture 38 - Hybrid Parameters
Link NOC:Basic Electric Circuits Lecture 39 - Transmission Parameters
Link NOC:Basic Electric Circuits Lecture 40 - Interconnection of Networks
Link NOC:Basic Electric Circuits Lecture 41 - Nodal and Mesh Analysis
Link NOC:Basic Electric Circuits Lecture 42 - Superposition Theorem and Source Transformation
Link NOC:Basic Electric Circuits Lecture 43 - Thevenin's, Norton's and, Maximum Power Transfer Theorem
Link NOC:Basic Electric Circuits Lecture 44 - Magnetically Coupled Circuits
Link NOC:Basic Electric Circuits Lecture 45 - Energy in Coupled Circuits and Ideal Transformer
Link NOC:Basic Electric Circuits Lecture 46 - Ideal Transformer and Introduction to Three-Phase Circuits
Link NOC:Basic Electric Circuits Lecture 47 - Balanced Three-Phase Connections
Link NOC:Basic Electric Circuits Lecture 48 - Balanced Wye-Delta and Delta-Delta Connections
Link NOC:Basic Electric Circuits Lecture 49 - Balanced Delta-Wye Connection and Power in Balanced Three-Phase System
Link NOC:Basic Electric Circuits Lecture 50 - Unbalanced Three-Phase System and Three-Phase Power Measurement
Link NOC:Basic Electric Circuits Lecture 51 - Introduction to Graphical Models
Link NOC:Basic Electric Circuits Lecture 52 - State Equations
Link NOC:Basic Electric Circuits Lecture 53 - State Diagram
Link NOC:Basic Electric Circuits Lecture 54 - State Transition Matrix
Link NOC:Basic Electric Circuits Lecture 55 - State Variable Method to Circuit Analysis
Link NOC:Basic Electric Circuits Lecture 56 - Characteristic Equation, Eigenvalues, and Eigenvectors-State Variable Analysis (Continued...)
Link NOC:Basic Electric Circuits Lecture 57 - Modeling of Mechanical Systems
Link NOC:Basic Electric Circuits Lecture 58 - Modeling of The Rotational Motion of Mechanical Systems
Link NOC:Basic Electric Circuits Lecture 59 - Modeling of Electrical Systems
Link NOC:Basic Electric Circuits Lecture 60 - Solving Analogous Systems
Link NOC:Fundamentals of Electric Drives Lecture 1 - Introduction to Electric Drives
Link NOC:Fundamentals of Electric Drives Lecture 2 - Dynamics of Electric Drives, Four Quadrant Operation, Equivalent Drive Parameters
Link NOC:Fundamentals of Electric Drives Lecture 3 - Equivalent Drive Parameters, Friction Components, Nature of Load Torque
Link NOC:Fundamentals of Electric Drives Lecture 4 - Steady State Stability, Load Equalization
Link NOC:Fundamentals of Electric Drives Lecture 5 - Load Equalization, Characteristics of DC Motor
Link NOC:Fundamentals of Electric Drives Lecture 6 - Speed Torque Characteristics of Separately Excited DC Motor and Series DC Motor
Link NOC:Fundamentals of Electric Drives Lecture 7 - Field Control of Series Motor, Motoring and Braking of Separately Excited and Series DC motors
Link NOC:Fundamentals of Electric Drives Lecture 8 - Speed Control of Separately Excited DC Motor Using Controlled Rectifiers
Link NOC:Fundamentals of Electric Drives Lecture 9 - Analysis of Single Phase Full Controlled Converter-fed Separately Excited DC Motor
Link NOC:Fundamentals of Electric Drives Lecture 10 - Speed Torque Characteristics of Full Controlled Converter-fed Separately Excited DC Motor, Analysis of Single Phase Half Controlled Converter-fed Separately Excited DC Motor
Link NOC:Fundamentals of Electric Drives Lecture 11 - Analysis of Single Phase Half Controlled Converter-fed Separately Excited DC Motor.
Link NOC:Fundamentals of Electric Drives Lecture 12 - Three Phase Full Controlled Converter-fed Separately Excited DC Motor, Multi-quadrant Operation of DC Motor
Link NOC:Fundamentals of Electric Drives Lecture 13 - Dual Converter-fed DC Motor, Multi-quadrant Operation Using Field Current Reversal
Link NOC:Fundamentals of Electric Drives Lecture 14 - DC Chopper-fed Separately Excited DC Motor for Motoring and Braking
Link NOC:Fundamentals of Electric Drives Lecture 15 - Two-quadrant DC Chopper, Four-quadrant DC Chopper
Link NOC:Fundamentals of Electric Drives Lecture 16 - Dynamic Braking of DC Motor by Chopper Controlled Resistor, Closed-loop Operation of DC Drives, Induction Motor Drives
Link NOC:Fundamentals of Electric Drives Lecture 17 - Speed Torque Characteristics of Induction Motor, Operation of Induction Motor from Non-sinusoidal Supply
Link NOC:Fundamentals of Electric Drives Lecture 18 - Operation of Induction Motor from Non-sinusoidal Supply
Link NOC:Fundamentals of Electric Drives Lecture 19 - Stator Current of Induction Motor with Non-sinusoidal Supply, Operation of Induction Motor with Unbalanced Voltage Supply
Link NOC:Fundamentals of Electric Drives Lecture 20 - Single Phasing of Induction Motor, Braking of Induction Motor
Link NOC:Fundamentals of Electric Drives Lecture 21 - Dynamic braking of induction motor, AC dynamic braking, DC dynamic braking
Link NOC:Fundamentals of Electric Drives Lecture 22 - Analysis of DC dynamic braking of induction motor
Link NOC:Fundamentals of Electric Drives Lecture 23 - Self-excited dynamic braking of induction motor, Speed control of induction motor using stator voltage regulator, Variable voltage variable frequency control
Link NOC:Fundamentals of Electric Drives Lecture 24 - Variable voltage variable frequency control of induction motor, Open loop V/F control
Link NOC:Fundamentals of Electric Drives Lecture 25 - Slip speed control of induction motor, Constant Volt/Hz control with slip speed regulation
Link NOC:Fundamentals of Electric Drives Lecture 26 - Closed-loop Volt/Hz control of induction motor with slip speed regulation, Multi-quadrant operation of induction motor drive
Link NOC:Fundamentals of Electric Drives Lecture 27 - Current Source Inverter (CSI) fed induction motor drive
Link NOC:Fundamentals of Electric Drives Lecture 28 - Closed-loop operation of current source inverter (CSI) fed induction motor drive, Control of slip ring induction motor - Static rotor resistance control
Link NOC:Fundamentals of Electric Drives Lecture 29 - Closed-loop operation of slip ring induction motor with static rotor resistance control, Slip power recovery in slip ring induction motor - Static Kramer drive
Link NOC:Fundamentals of Electric Drives Lecture 30 - Static Kramer drive and its closed-loop control, Introduction to synchronous motor
Link NOC:Fundamentals of Electric Drives Lecture 31 - Various types of synchronous motors, Equivalent circuit and phasor diagram of cylindrical synchronous motor, Speed-torque characteristics of cylindrical synchronous motor
Link NOC:Fundamentals of Electric Drives Lecture 32 - Phasor diagram of salient pole synchronous motor, Expression of power and torque for a salient pole synchronous motor, Synchronous reluctance motor, Open-loop V/f control of synchronous motor
Link NOC:Fundamentals of Electric Drives Lecture 33 - Open-loop V/f control, Torque-speed characteristics, Self controlled synchronous motor drive employing load commutated thyristor inverter
Link NOC:Fundamentals of Electric Drives Lecture 34 - Detailed analysis of commutation of load commutated thyrisor inverter, Derivation of overlap angle and margin angle, Closed-loop speed control scheme for load commutated inverter-fed synchronous motor drive
Link NOC:Fundamentals of Electric Drives Lecture 35 - Low cost brushless DC motor (BLDCM), Trapezoidal permanent magnet AC motor
Link NOC:Fundamentals of Electric Drives Lecture 36 - Trapezoidal permanent magnet AC motor, Derivation of power and torque, Closed-loop control of trapezoidal BLDC motor, Introduction to switched reluctance motor
Link NOC:Fundamentals of Electric Drives Lecture 37 - Construction and operating principle of switched reluctance motor
Link NOC:Fundamentals of Electric Drives Lecture 38 - Current/ voltage control for switched reluctance motor, operating modes of switched reluctance motor, Introduction to traction drives
Link NOC:Fundamentals of Electric Drives Lecture 39 - Current collector for mainline trains, Nature of traction load, Duty cycle of traction drives
Link NOC:Fundamentals of Electric Drives Lecture 40 - Duty cycle of traction drives, Distance between two stops, Calculation of total tractive effort and drive rating
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 1 - Introduction: Fuzzy Sets, Logic and Systems and Applications
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 2 - Introduction: Real Life Applications of Fuzzy Systems
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 3 - Fuzzy Sets and Fuzzy Logic Toolbox in MATLAB - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 4 - Fuzzy Sets and Fuzzy Logic Toolbox in MATLAB - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 5 - Membership Functions - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 6 - Membership Functions - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 7 - Nomenclatures used in Fuzzy Set Theory - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 8 - Nomenclatures used in Fuzzy Set Theory - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 9 - Nomenclatures used in Fuzzy Set Theory - III
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 10 - Set Theoretic Operations on Fuzzy Sets - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 11 - Set Theoretic Operations on Fuzzy Sets - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 12 - Properties of Fuzzy Sets - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 13 - Properties of Fuzzy Sets - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 14 - Properties of Fuzzy Sets - III
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 15 - Properties of Fuzzy Sets - IV
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 16 - Properties of Fuzzy Sets - V
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 17 - Distance between Fuzzy Sets - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 18 - Distance between Fuzzy Sets - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 19 - Distance between Fuzzy Sets - III
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 20 - Arithmetic Operations on Fuzzy Numbers - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 21 - Arithmetic Operations on Fuzzy Numbers - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 22 - Arithmetic Operations on Fuzzy Numbers - III
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 23 - Complement of Fuzzy Sets
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 24 - T-norm Operators
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 25 - S-norm Operators
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 26 - Parameterized T-Norm Operators
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 27 - Parameterized S-Norm Operators
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 28 - Fuzzy Relation - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 29 - Fuzzy Relation - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 30 - Operations on Crisp and Fuzzy Relations
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 31 - Projection of Fuzzy Relation Set
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 32 - Cylindrical Extension of Fuzzy Set
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 33 - Properties of Fuzzy Relation - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 34 - Properties of Fuzzy Relation - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 35 - Extension Principle
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 36 - Composition of Fuzzy Relations
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 37 - Properties of Composition of Fuzzy Relations
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 38 - Fuzzy Tolerance and Equivalence Relations - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 39 - Fuzzy Tolerance and Equivalence Relations - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 40 - Fuzzy Tolerance and Equivalence Relations - III
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 41 - Linguistic Hedges
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 42 - Linguistic Hedges and Negation/ Complement and Connectives
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 43 - Concentration and Dilation and Composite Linguistic Term and Some Examples
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 44 - Dilation and Composite Linguistic Term and Some Examples
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 45 - Some Examples on Composite Linguistic Terms
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 46 - Contrast Intensification of Fuzzy Sets
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 47 - Orthogonality of Fuzzy Sets
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 48 - Fuzzy Rules and Fuzzy Reasoning - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 49 - Fuzzy Rules and Fuzzy Reasoning - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 50 - Fuzzy Inference System
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 51 - Mamdani Fuzzy Model - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 52 - Mamdani Fuzzy Model - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 53 - Mamdani Fuzzy Model - III
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 54 - Example on Mamdani Fuzzy Model for Single Antecedent with Three Rules
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 55 - Example on Mamdani Fuzzy Model for Two Antecedents with Four Rules
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 56 - Larsen Fuzzy Model - I
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 57 - Larsen Fuzzy Model - II
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 58 - Larsen Fuzzy Model - III
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 59 - Tsukamoto Fuzzy Model
Link NOC:Fuzzy Sets, Logic and Systems and Applications Lecture 60 - TSK Fuzzy Model
Link NOC:Peer to Peer Networks Lecture 1 - Introduction to Peer to Peer Networks
Link NOC:Peer to Peer Networks Lecture 2 - Peer to Peer Network in Telephony:Voice over Internet Telephony (VoIP) and Distributed Hash Table (DHT)
Link NOC:Peer to Peer Networks Lecture 3 - Building DHT Networks
Link NOC:Peer to Peer Networks Lecture 4 - Logarithmic Partitioning of Node ID Space and Index Entry Authenticity
Link NOC:Peer to Peer Networks Lecture 5 - Implementation of Voice over Internet Telephony in P2P Way
Link NOC:Peer to Peer Networks Lecture 6 - Leaf Nodes, Core Nodes and Type of Messages in DHT Networks
Link NOC:Peer to Peer Networks Lecture 7 - Static and Dynamic Partitioning of Node ID Space: Fixed and Floating Partitioning
Link NOC:Peer to Peer Networks Lecture 8 - PASTRY Protocol: The Efficient Use of Internet Infrastructure
Link NOC:Peer to Peer Networks Lecture 9 - Understanding the PASTRY Protocol through Example
Link NOC:Peer to Peer Networks Lecture 10 - Kademlia: A DHT Routing Protocol
Link NOC:Peer to Peer Networks Lecture 11 - Tapestry: An Evolution of Kademlia
Link NOC:Peer to Peer Networks Lecture 12 - Understanding the Tapestry Protocol through Example
Link NOC:Peer to Peer Networks Lecture 13 - Multi-dimensional Distributed Hash Table: Mapping of Peers into Multidimensional Space
Link NOC:Peer to Peer Networks Lecture 14 - Multi-Layer DHT: A Design for Multiple Services
Link NOC:Peer to Peer Networks Lecture 15 - Keeping Pairs at Correct Root Nodes
Link NOC:Peer to Peer Networks Lecture 16 - Abrupt and Graceful Exit of Root Node: Maintaining Pairs Alive
Link NOC:Peer to Peer Networks Lecture 17 - Resilience of Pairs
Link NOC:Peer to Peer Networks Lecture 18 - A P2P Distributed File System
Link NOC:Peer to Peer Networks Lecture 19 - Storage Space Problem and Incentives to Share Storage
Link NOC:Peer to Peer Networks Lecture 20 - P2P Nodes Communications Challenges in Heterogeneous Network Environments
Link NOC:Peer to Peer Networks Lecture 21 - P2P Overlaid Multicast: Basic Design
Link NOC:Peer to Peer Networks Lecture 22 - P2P Overlaid Multicast: Alternate Design
Link NOC:Peer to Peer Networks Lecture 23 - A Design of P2P Email System
Link NOC:Peer to Peer Networks Lecture 24 - P2P Mailing List Services: A Basic Design
Link NOC:Peer to Peer Networks Lecture 25 - P2P Mailing List Services: An Alternate Design
Link NOC:Peer to Peer Networks Lecture 26 - P2P Web: A Basic Design
Link NOC:Peer to Peer Networks Lecture 27 - P2P Web Search Engine: A Basic Design
Link NOC:Peer to Peer Networks Lecture 28 - P2P Internet: On Being Anonymous
Link NOC:Peer to Peer Networks Lecture 29 - P2P in Blockchain
Link NOC:Peer to Peer Networks Lecture 30 - P2P Anonymous Communication
Link NOC:Peer to Peer Networks Lecture 31 - The Anonymous Communication on the Internet through TOR Network
Link NOC:Peer to Peer Networks Lecture 32 - An Introduction To TOR Browser: The Anonymity Preserving Access of the Web Sites
Link NOC:Peer to Peer Networks Lecture 33 - Hidden Services on TOR Network
Link NOC:Peer to Peer Networks Lecture 34 - MOOC Wrap-Up : Summary of the Course
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 1 - Vector Properties: Addition, Linear Combination, Inner Product, Orthogonality, Norm
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 2 - Vectors: Unit Norm Vector, Cauchy-Schwarz inequality, Radar Application
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 3 - Inner Product Application: Beamforming in Wireless Communication Systems
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 4 - Matrices, Definition, Addition and Multiplication of Matrices
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 5 - Matrix: Column Space, Linear Independence, Rank of Matrix, Gaussian Elimination
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 6 - Matrix: Determinant, Inverse Computation, Adjoint, Cofactor Concepts
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 7 - Applications of Matrices: Solution of System of Linear equations, MIMO Wireless Technology
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 8 - Applications of Matrices: Electric Circuits, Traffic flows
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 9 - Applications of Matrices: Graph Theory, Social Networks, Dominance Directed Graph, Influential Node
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 10 - Null Space of Matrix: Definition, Rank-Nullity Theorem, Application in Electric Circuits
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 11 - Gram-Schmidt Orthogonalization
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 12 - Gaussian Random Variable: Definition, Mean, Variance, Multivariate Gaussian, Covariance Matrix
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 13 - Linear Transformation of Gaussian Random Vectors
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 14 - Machine Learning Application: Gaussian Classification
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 15 - Eigenvalue: Definition, Characteristic Equation, Eigenvalue Decomposition
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 16 - Special Matrices: Rotation and Unitary Matrices, Application: Alamouti Code
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 17 - Positive Semi-definite (PSD) Matrices: Definition, Properties, Eigenvalue Decomposition
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 18 - Positive Semidefinite Matrix: Example and Illustration of Eigenvalue Decomposition
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 19 - Machine Learning Application: Principle Component Analysis (PCA)
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 20 - Computer Vision Application: Face Recognition, Eigenfaces
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 21 - Least Squares (LS) Solution, Pseudo-Inverse Concept
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 22 - Least Squares (LS) via Principle of Orthogonality, Projection Matrix, Properties
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 23 - Application: Pseudo-Inverse and MIMO Zero Forcing (ZF) Receiver
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 24 - Wireless Application: Multi-Antenna Channel Estimation
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 25 - Machine Learning Application: Linear Regression
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 26 - Computation Mathematics Application: Polynomial Fitting
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 27 - Least Norm Solution
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 28 - Wireless Application: Multi-user Beamforming
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 29 - Singular Value Decomposition (SVD): Definition, Properties, Example
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 30 - SVD Application in MIMO Wireless Technology: Spatial-Multiplexing and High Data Rates
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 31 - SVD for MIMO wireless optimization, water-filling algorithm, optimal power allocation
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 32 - SVD application for Machine Learning: Principal component analysis (PCA)
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 33 - Multiple signal classification (MUSIC) algorithm: system model
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 34 - MUSIC algorithm for Direction of Arrival (DoA) estimation
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 35 - Linear minimum mean square error (LMMSE) principle
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 36 - LMMSE estimate and error covariance matrix
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 37 - LMMSE estimation in linear systems
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 38 - LMMSE application: Wireless channel estimation and example
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 39 - Time-series prediction via auto-regressive (AR) model
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 40 - Recommender system: design and rating prediction
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 41 - Recommender system: Illustration via movie rating prediction example
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 42 - Fast Fourier transform (FFT) and Inverse fast Fourier transform (IFFT)
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 43 - IFFT/ FFT application in Orthogonal Frequency Division Multiplexing (OFDM) wireless technology
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 44 - OFDM system: Circulant matrices and properties
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 45 - OFDM system model: Transmitter and receiver processing
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 46 - Single-carrier frequency division for multiple access (SC-FDMA) technology
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 47 - Linear dynamical systems: definition and solution via matrix exponential
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 48 - Linear dynamical systems: matrix exponential via SVD
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 49 - Machine Learning application: Support Vector Machines (SVM)
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 50 - Support Vector Machines (SVM): Problem formulation via maximum hyperplane separation
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 51 - Sparse regression: problem formulation and relation to Compressive Sensing (CS)
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 52 - Sparse regression: solution via the Orthogonal Matching Pursuit (OMP) algorithm
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 53 - OMP Example for Sparse Regression
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 54 - Machine Learning Application: Clustering
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 55 - K-Means Clustering algorithm
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 56 - Introduction to Stochastic Processes and Markov Chains
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 57 - Discrete Time Markov Chains and Transition Probability Matrix
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 58 - Discrete Time Markov Chain Examples
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 59 - m-STEP Transition Probabilities for Discrete Time Markov Chains
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 60 - Limiting Behavior of Discrete Time Markov Chains
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 61 - Least Squares Revisited: Rank Deficient Matrix
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 62 - Least Squares using SVD
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 63 - Weighted Least Squares
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 64 - Weighted Least Squares Example
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 65 - Woodbury Matrix Identity - Matrix Inversion Lemma
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 66 - Woodbury Matrix Identity - Proof
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 67 - Conditional Gaussian Density - Mean
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 68 - Conditional Gaussian Density - Covariance
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 69 - Scalar Linear Model for Gaussian Estimation
Link NOC:Applied Linear Algebra for Signal Processing, Data Analytics and Machine Learning Lecture 70 - MMSE Estimate and Covariance for the Scalar Linear Model
Link NOC:Economic Operations and Control of Power Systems Lecture 1
Link NOC:Economic Operations and Control of Power Systems Lecture 2
Link NOC:Economic Operations and Control of Power Systems Lecture 3
Link NOC:Economic Operations and Control of Power Systems Lecture 4
Link NOC:Economic Operations and Control of Power Systems Lecture 5
Link NOC:Economic Operations and Control of Power Systems Lecture 6
Link NOC:Economic Operations and Control of Power Systems Lecture 7
Link NOC:Economic Operations and Control of Power Systems Lecture 8
Link NOC:Economic Operations and Control of Power Systems Lecture 9
Link NOC:Economic Operations and Control of Power Systems Lecture 10
Link NOC:Economic Operations and Control of Power Systems Lecture 11
Link NOC:Economic Operations and Control of Power Systems Lecture 12
Link NOC:Economic Operations and Control of Power Systems Lecture 13
Link NOC:Economic Operations and Control of Power Systems Lecture 14
Link NOC:Economic Operations and Control of Power Systems Lecture 15
Link NOC:Economic Operations and Control of Power Systems Lecture 16
Link NOC:Economic Operations and Control of Power Systems Lecture 17
Link NOC:Economic Operations and Control of Power Systems Lecture 18
Link NOC:Economic Operations and Control of Power Systems Lecture 19
Link NOC:Economic Operations and Control of Power Systems Lecture 20
Link NOC:Economic Operations and Control of Power Systems Lecture 21
Link NOC:Economic Operations and Control of Power Systems Lecture 22
Link NOC:Economic Operations and Control of Power Systems Lecture 23
Link NOC:Economic Operations and Control of Power Systems Lecture 24
Link NOC:Economic Operations and Control of Power Systems Lecture 25
Link NOC:Economic Operations and Control of Power Systems Lecture 26
Link NOC:Economic Operations and Control of Power Systems Lecture 27
Link NOC:Economic Operations and Control of Power Systems Lecture 28
Link NOC:Economic Operations and Control of Power Systems Lecture 29
Link NOC:Economic Operations and Control of Power Systems Lecture 30
Link NOC:Economic Operations and Control of Power Systems Lecture 31
Link NOC:Economic Operations and Control of Power Systems Lecture 32
Link NOC:Economic Operations and Control of Power Systems Lecture 33
Link NOC:Economic Operations and Control of Power Systems Lecture 34
Link NOC:Economic Operations and Control of Power Systems Lecture 35
Link NOC:Economic Operations and Control of Power Systems Lecture 36
Link NOC:Economic Operations and Control of Power Systems Lecture 37
Link NOC:Economic Operations and Control of Power Systems Lecture 38
Link NOC:Economic Operations and Control of Power Systems Lecture 39
Link NOC:Economic Operations and Control of Power Systems Lecture 40
Link NOC:Economic Operations and Control of Power Systems Lecture 41
Link NOC:Economic Operations and Control of Power Systems Lecture 42
Link NOC:Economic Operations and Control of Power Systems Lecture 43
Link NOC:Economic Operations and Control of Power Systems Lecture 44
Link NOC:Economic Operations and Control of Power Systems Lecture 45
Link NOC:Economic Operations and Control of Power Systems Lecture 46
Link NOC:Economic Operations and Control of Power Systems Lecture 47
Link NOC:Economic Operations and Control of Power Systems Lecture 48
Link NOC:Economic Operations and Control of Power Systems Lecture 49
Link NOC:Economic Operations and Control of Power Systems Lecture 50
Link NOC:Economic Operations and Control of Power Systems Lecture 51
Link NOC:Economic Operations and Control of Power Systems Lecture 52
Link NOC:Economic Operations and Control of Power Systems Lecture 53
Link NOC:Economic Operations and Control of Power Systems Lecture 54
Link NOC:Economic Operations and Control of Power Systems Lecture 55
Link NOC:Economic Operations and Control of Power Systems Lecture 56
Link NOC:Economic Operations and Control of Power Systems Lecture 57
Link NOC:Economic Operations and Control of Power Systems Lecture 58
Link NOC:Economic Operations and Control of Power Systems Lecture 59
Link NOC:Economic Operations and Control of Power Systems Lecture 60
Link NOC:Digital Switching Lecture 1
Link NOC:Digital Switching Lecture 2
Link NOC:Digital Switching Lecture 3
Link NOC:Digital Switching Lecture 4
Link NOC:Digital Switching Lecture 5
Link NOC:Digital Switching Lecture 6
Link NOC:Digital Switching Lecture 7
Link NOC:Digital Switching Lecture 8
Link NOC:Digital Switching Lecture 9
Link NOC:Digital Switching Lecture 10
Link NOC:Digital Switching Lecture 11
Link NOC:Digital Switching Lecture 12
Link NOC:Digital Switching Lecture 13
Link NOC:Digital Switching Lecture 14
Link NOC:Digital Switching Lecture 15
Link NOC:Digital Switching Lecture 16
Link NOC:Digital Switching Lecture 17
Link NOC:Digital Switching Lecture 18
Link NOC:Digital Switching Lecture 19
Link NOC:Digital Switching Lecture 20
Link NOC:Digital Switching Lecture 21
Link NOC:Digital Switching Lecture 22
Link NOC:Digital Switching Lecture 23
Link NOC:Digital Switching Lecture 24
Link NOC:Digital Switching Lecture 25
Link NOC:Digital Switching Lecture 26
Link NOC:Digital Switching Lecture 27
Link NOC:Digital Switching Lecture 28
Link NOC:Digital Switching Lecture 29
Link NOC:Digital Switching Lecture 30
Link NOC:Digital Switching Lecture 31
Link NOC:Digital Switching Lecture 32
Link NOC:Digital Switching Lecture 33
Link NOC:Digital Switching Lecture 34
Link NOC:Digital Switching Lecture 35
Link NOC:Digital Switching Lecture 36
Link NOC:Digital Switching Lecture 37
Link NOC:Digital Switching Lecture 38
Link NOC:Analog VLSI Design Lecture 1
Link NOC:Analog VLSI Design Lecture 2
Link NOC:Analog VLSI Design Lecture 3
Link NOC:Analog VLSI Design Lecture 4
Link NOC:Analog VLSI Design Lecture 5
Link NOC:Analog VLSI Design Lecture 6
Link NOC:Analog VLSI Design Lecture 7
Link NOC:Analog VLSI Design Lecture 8
Link NOC:Analog VLSI Design Lecture 9
Link NOC:Analog VLSI Design Lecture 10
Link NOC:Analog VLSI Design Lecture 11
Link NOC:Analog VLSI Design Lecture 12
Link NOC:Analog VLSI Design Lecture 13
Link NOC:Analog VLSI Design Lecture 14
Link NOC:Analog VLSI Design Lecture 15
Link NOC:Analog VLSI Design Lecture 16
Link NOC:Analog VLSI Design Lecture 17
Link NOC:Analog VLSI Design Lecture 18
Link NOC:Analog VLSI Design Lecture 19
Link NOC:Analog VLSI Design Lecture 20
Link NOC:Analog VLSI Design Lecture 21
Link NOC:Analog VLSI Design Lecture 22
Link NOC:Analog VLSI Design Lecture 23
Link NOC:Analog VLSI Design Lecture 24
Link NOC:Analog VLSI Design Lecture 25
Link NOC:Analog VLSI Design Lecture 26
Link NOC:Analog VLSI Design Lecture 27
Link NOC:Analog VLSI Design Lecture 28
Link NOC:Analog VLSI Design Lecture 29
Link NOC:Analog VLSI Design Lecture 30
Link NOC:Analog VLSI Design Lecture 31
Link NOC:Analog VLSI Design Lecture 32
Link NOC:Analog VLSI Design Lecture 33
Link NOC:Analog VLSI Design Lecture 34
Link NOC:Analog VLSI Design Lecture 35
Link NOC:Analog VLSI Design Lecture 36
Link NOC:Analog VLSI Design Lecture 37
Link NOC:Analog VLSI Design Lecture 38
Link NOC:Analog VLSI Design Lecture 39
Link NOC:Analog VLSI Design Lecture 40
Link NOC:Analog VLSI Design Lecture 41
Link NOC:Analog VLSI Design Lecture 42
Link NOC:Analog VLSI Design Lecture 43
Link NOC:Analog VLSI Design Lecture 44
Link NOC:Analog VLSI Design Lecture 45
Link NOC:Analog VLSI Design Lecture 46
Link NOC:Analog VLSI Design Lecture 47
Link NOC:Analog VLSI Design Lecture 48
Link NOC:Analog VLSI Design Lecture 49
Link NOC:Analog VLSI Design Lecture 50
Link NOC:Analog VLSI Design Lecture 51
Link NOC:Analog VLSI Design Lecture 52
Link NOC:Analog VLSI Design Lecture 53
Link NOC:Analog VLSI Design Lecture 54
Link NOC:Analog VLSI Design Lecture 55
Link NOC:Analog VLSI Design Lecture 56
Link NOC:Analog VLSI Design Lecture 57
Link NOC:Analog VLSI Design Lecture 58
Link NOC:Analog VLSI Design Lecture 59
Link NOC:Analog VLSI Design Lecture 60
Link NOC:Analog VLSI Design Lecture 61
Link NOC:Analog VLSI Design Lecture 62
Link NOC:Analog VLSI Design Lecture 63
Link NOC:Analog VLSI Design Lecture 64
Link NOC:Analog VLSI Design Lecture 65
Link Electrical Machines I Lecture 1 - Introduction
Link Electrical Machines I Lecture 2 - Operating Principles and Construction of Single Phase Transformers
Link Electrical Machines I Lecture 3 - Modeling of Single Phase Transformers
Link Electrical Machines I Lecture 4 - Equivalent Circuits of Single Phase Transformers
Link Electrical Machines I Lecture 5 - Testing of Single Phase Transformers
Link Electrical Machines I Lecture 6 - Efficiency of Single Phase Transformers
Link Electrical Machines I Lecture 7 - Voltage Regulation of Single Phase Transformers
Link Electrical Machines I Lecture 8 - Parallel Operation of Single Phase Transformers
Link Electrical Machines I Lecture 9 - Harmonics and Switching Transients in Single Phase Transformers
Link Electrical Machines I Lecture 10 - Introduction to Three Phase Transformer
Link Electrical Machines I Lecture 11 - Construction of Three Phase Transformers
Link Electrical Machines I Lecture 12 - Three Phase Transformer Connections
Link Electrical Machines I Lecture 13 - Three Phase Transformer Phase Groups Part - I
Link Electrical Machines I Lecture 14 - Three Phase Transformer Phase Groups Part - II
Link Electrical Machines I Lecture 15 - Analysis and Testing of Three Phase Transformers
Link Electrical Machines I Lecture 16 - Operation of Three Phase Transformers
Link Electrical Machines I Lecture 17 - Auto Transformers
Link Electrical Machines I Lecture 18 - Three Winding Transformers
Link Electrical Machines I Lecture 19 - Scott Connected Transformers
Link Electrical Machines I Lecture 20 - Potential and Current Transformers
Link Electrical Machines I Lecture 21 - Operating Principles of DC Machines
Link Electrical Machines I Lecture 22 - Constructional Features of DC Machines
Link Electrical Machines I Lecture 23 - Generated EMF and Torque in DC Machines
Link Electrical Machines I Lecture 24 - Armature Reaction
Link Electrical Machines I Lecture 25 - Commutation in DC Machines
Link Electrical Machines I Lecture 26 - Separately Excited DC Generators
Link Electrical Machines I Lecture 27 - DC Shunt Generators
Link Electrical Machines I Lecture 28 - Compound DC Generators
Link Electrical Machines I Lecture 29 - Interconnected DC Generators
Link Electrical Machines I Lecture 30 - Characteristics of DC Shunt Motors
Link Electrical Machines I Lecture 31 - Starting of DC Shunt Motors
Link Electrical Machines I Lecture 32 - Speed Control of DC Shunt Motors
Link Electrical Machines I Lecture 33 - Braking of DC Shunt Motors
Link Electrical Machines I Lecture 34 - Electronic Control of DC Shunt Motors
Link Electrical Machines I Lecture 35 - Testing of DC Shunt Motors
Link Electrical Machines I Lecture 36 - Characteristics of DC Series Motors
Link Electrical Machines I Lecture 37 - Starting and Braking of DC Series Motors
Link Electrical Machines I Lecture 38 - Speed Control and of DC Series Motors
Link Electrical Machines I Lecture 39 - Testing of DC Series Motors
Link Electrical Machines I Lecture 40 - Characteristics of Compound DC Series Motors
Link Optimal Control Lecture 1 - Introduction to Optimization Problem: Some Examples
Link Optimal Control Lecture 2 - Introduction to Optimization Problem: Some Examples (Continued.)
Link Optimal Control Lecture 3 - Optimality Conditions for Function of Several Variables
Link Optimal Control Lecture 4 - Optimality Conditions for Function of Several Variables (Continued.)
Link Optimal Control Lecture 5 - Unconstrained Optimization Problem (Numerical Techniques)
Link Optimal Control Lecture 6 - Solution of Unconstrained Optimization Problem Using Conjugate Quadient Method and Networks Methods
Link Optimal Control Lecture 7 - Solution of Unconstrained Optimization Problem Using Conjugate Quadient Method and Networks Methods (Continued.)
Link Optimal Control Lecture 8 - Solution of Constraint Optimization Problem-Karush-Kuhn Tucker (KKT) Conditions
Link Optimal Control Lecture 9 - Solution of Constraint Optimization Problem-Karush-Kuhn Tucker (KKT) Conditions (Continued.)
Link Optimal Control Lecture 10 - Problem and Solution Session
Link Optimal Control Lecture 11 - Post Optimality Analysis, Convex Function and its Properties
Link Optimal Control Lecture 12 - Post Optimality Analysis, Convex Function and its Properties (Continued.)
Link Optimal Control Lecture 13 - Quadratic Optimization Problem Using Linear Programming
Link Optimal Control Lecture 14 - Matrix form of the Simplex Method
Link Optimal Control Lecture 15 - Matrix form of the Simplex Method (Continued.)
Link Optimal Control Lecture 16 - Solution of Linear Programming Using Simplex Method:- Algebraic Approach
Link Optimal Control Lecture 17 - Solution of Linear Programming Using Simplex Method:- Algebraic Approach (Continued.)
Link Optimal Control Lecture 18 - Solution of LP Problems with Two Phase Method
Link Optimal Control Lecture 19 - Solution of LP Problems with Two Phase Method (Continued.)
Link Optimal Control Lecture 20 - Standard Primal and Dual Problems
Link Optimal Control Lecture 21 - Relationship Between Primal and Dual Variables
Link Optimal Control Lecture 22 - Solution of Quadratic Programming Problem Using Simplex Method
Link Optimal Control Lecture 23 - Interior Point Method for Solving Optimization Problems
Link Optimal Control Lecture 24 - Interior Point Method for Solving Optimization Problems (Continued.)
Link Optimal Control Lecture 25 - Solution of Nonlinear Programming Problem Using Exterior Penalty Function Method
Link Optimal Control Lecture 26 - Solution of Nonlinear Programming Problem Using Exterior Penalty Function Method (Continued.)
Link Optimal Control Lecture 27 - Solution of Nonlinear Programming Problem Using Interior Penalty Function Method
Link Optimal Control Lecture 28 - Solution of Nonlinear Programming Problem Using Interior Penalty Function Method (Continued.)
Link Optimal Control Lecture 29 - Multiobjective Optimization Problem
Link Optimal Control Lecture 30 - Dynamic Optimization Problem: Basic Concepts and Necessary and Sufficient Condition
Link Optimal Control Lecture 31 - Dynamic Optimization Problem: Basic Concepts and Necessary and Sufficient Condition (Continued...1)
Link Optimal Control Lecture 32 - Dynamic Optimization Problem: Basic Concepts and Necessary and Sufficient Condition (Continued...2)
Link Optimal Control Lecture 33 - Numerical Example and Solution of Optimal Control Problem using Calculus of Variation principle
Link Optimal Control Lecture 34 - Numerical Example and Solution of Optimal Control Problem using Calculus of Variation principle (Continued.)
Link Optimal Control Lecture 35 - Hamiltonian Formulation for solution of optimal Control problem and numerical example
Link Optimal Control Lecture 36 - Hamiltonian Formulation for solution of optimal Control problem and numerical example (Continued.)
Link Optimal Control Lecture 37 - Performance Indices and Linear Quadratic Regulator Problem
Link Optimal Control Lecture 38 - Performance Indices and Linear Quadratic Regulator Problem (Continued.)
Link Optimal Control Lecture 39 - Solution and Stability Analysis of Finite - time LQR Problem: Numerical Example
Link Optimal Control Lecture 40 - Solution and Infinite - time LQR Problem and Stability Analysis
Link Optimal Control Lecture 41 - Numerical Example and Methods for Solution of A.R.E.
Link Optimal Control Lecture 42 - Numerical Example and Methods for Solution of A.R.E. (Continued.)
Link Optimal Control Lecture 43 - Frequency Domain Interpretation of LQR Controlled System
Link Optimal Control Lecture 44 - Gain and Phase Margin of LQR Controlled System
Link Optimal Control Lecture 45 - The Linear Quadratic Gaussian Problem
Link Optimal Control Lecture 46 - Loop-Transfer Recovery
Link Optimal Control Lecture 47 - Dynamic Programming for Discrete Time Systems
Link Optimal Control Lecture 48 - Minimum – Time Control of a Linear Time Invariant System
Link Optimal Control Lecture 49 - Solution of Minimum – Time Control Problem with an Example
Link Optimal Control Lecture 50 - Constraint in Control Inputs and State Variables
Link Optimal Control Lecture 51 - Constraint in Control Inputs and State Variables (Continued...)
Link Optimal Control Lecture 52 - Norms for Vectors, Matrices, Signals and Linear Systems
Link Optimal Control Lecture 53 - Signal and System Norms
Link Optimal Control Lecture 54 - Internal Stability, Sensitivity and Complementary Sensitivity Functions
Link Optimal Control Lecture 55 - Internal Stability, Sensitivity and Complementary Sensitivity Functions (Continued...)
Link Optimal Control Lecture 56 - Plant Uncertainty and Standard form for Robust Stability Analysis
Link Optimal Control Lecture 57 - Plant Uncertainty and Standard form for Robust Stability Analysis (Continued...)
Link Optimal Control Lecture 58 - Frequency Response of Linear System and Singular Value Decomposition of System
Link Optimal Control Lecture 59 - Control Problem Statement in H- alpha Framework
Link Optimal Control Lecture 60 - Control Problem Statement in H - alpha Framework (Continued...)
Link Chaos, Fractals and Dynamic Systems Lecture 1 - Representations of Dynamical Systems
Link Chaos, Fractals and Dynamic Systems Lecture 2 - Vector Fields of Nonlinear Systems
Link Chaos, Fractals and Dynamic Systems Lecture 3 - Limit Cycles
Link Chaos, Fractals and Dynamic Systems Lecture 4 - The Lorenz Equation - I
Link Chaos, Fractals and Dynamic Systems Lecture 5 - The Lorenz Equation - II
Link Chaos, Fractals and Dynamic Systems Lecture 6 - The Rossler Equation and Forced Pendulum
Link Chaos, Fractals and Dynamic Systems Lecture 7 - The Chua's Circuit
Link Chaos, Fractals and Dynamic Systems Lecture 8 - Discrete Time Dynamical Systems
Link Chaos, Fractals and Dynamic Systems Lecture 9 - The Logistic Map and Period doubling
Link Chaos, Fractals and Dynamic Systems Lecture 10 - Flip and Tangent Bifurcations
Link Chaos, Fractals and Dynamic Systems Lecture 11 - Intermittency Transcritical and pitchfork
Link Chaos, Fractals and Dynamic Systems Lecture 12 - Two Dimensional Maps
Link Chaos, Fractals and Dynamic Systems Lecture 13 - Bifurcations in Two Dimensional Maps
Link Chaos, Fractals and Dynamic Systems Lecture 14 - Introduction to Fractals
Link Chaos, Fractals and Dynamic Systems Lecture 15 - Mandelbrot Sets and Julia Sets
Link Chaos, Fractals and Dynamic Systems Lecture 16 - The Space Where Fractals Live
Link Chaos, Fractals and Dynamic Systems Lecture 17 - Interactive Function Systems
Link Chaos, Fractals and Dynamic Systems Lecture 18 - IFS Algorithms
Link Chaos, Fractals and Dynamic Systems Lecture 19 - Fractal Image Compression
Link Chaos, Fractals and Dynamic Systems Lecture 20 - Stable and Unstable Manifolds
Link Chaos, Fractals and Dynamic Systems Lecture 21 - Boundary Crisis and Interior Crisis
Link Chaos, Fractals and Dynamic Systems Lecture 22 - Statistics of Chaotic Attractors
Link Chaos, Fractals and Dynamic Systems Lecture 23 - Matrix Times Circle : Ellipse
Link Chaos, Fractals and Dynamic Systems Lecture 24 - Lyapunov Exponent
Link Chaos, Fractals and Dynamic Systems Lecture 25 - Frequency Spectra of Orbits
Link Chaos, Fractals and Dynamic Systems Lecture 26 - Dynamics on a Torus
Link Chaos, Fractals and Dynamic Systems Lecture 27 - Dynamics on a Torus
Link Chaos, Fractals and Dynamic Systems Lecture 28 - Analysis of Chaotic Time Series
Link Chaos, Fractals and Dynamic Systems Lecture 29 - Analysis of Chaotic Time Series
Link Chaos, Fractals and Dynamic Systems Lecture 30 - Lyapunou Function and Centre Manifold Theory
Link Chaos, Fractals and Dynamic Systems Lecture 31 - Non-Smooth Bifurcations
Link Chaos, Fractals and Dynamic Systems Lecture 32 - Non-Smooth Bifurcations
Link Chaos, Fractals and Dynamic Systems Lecture 33 - Normal from for Piecewise Smooth 2D Maps
Link Chaos, Fractals and Dynamic Systems Lecture 34 - Bifurcations in Piecewise Linear 2D Maps
Link Chaos, Fractals and Dynamic Systems Lecture 35 - Bifurcations in Piecewise Linear 2D Maps
Link Chaos, Fractals and Dynamic Systems Lecture 36 - Multiple Attractor Bifurcation and Dangerous
Link Chaos, Fractals and Dynamic Systems Lecture 37 - Dynamics of Discontinuous Maps
Link Chaos, Fractals and Dynamic Systems Lecture 38 - Introduction to Floquet Theory
Link Chaos, Fractals and Dynamic Systems Lecture 39 - The Monodromy Matrix and the Saltation Matrix
Link Chaos, Fractals and Dynamic Systems Lecture 40 - Control of Chaos
Link Digital Signal Processing Lecture 1 - Discrete Time Signal and System
Link Digital Signal Processing Lecture 2 - Discrete Time Signal and System (Continued...)
Link Digital Signal Processing Lecture 3 - Discrete Time Signal and System (Continued...)
Link Digital Signal Processing Lecture 4 - Frequency Domain Representation of Discrete Signals
Link Digital Signal Processing Lecture 5 - Z-Transform
Link Digital Signal Processing Lecture 6 - Z-Transform (Continued...)
Link Digital Signal Processing Lecture 7 - Solution of Difference Equation
Link Digital Signal Processing Lecture 8 - Tutorial on Discrete Time Signals & Their Transforms
Link Digital Signal Processing Lecture 9 - Relation Between Discrete Time and Continuous Signals
Link Digital Signal Processing Lecture 10 - Discrete Fourier Transform (DFT)
Link Digital Signal Processing Lecture 11 - Discrete Fourier Transform (DFT) (Continued...)
Link Digital Signal Processing Lecture 12 - Discrete Fourier Transform (DFT) (Continued...)
Link Digital Signal Processing Lecture 13 - State Space Representation
Link Digital Signal Processing Lecture 14 - Filters Introduction
Link Digital Signal Processing Lecture 15 - FIR Filters
Link Digital Signal Processing Lecture 16 - FIR Filters (Continued...) Introduction to IIR Filters
Link Digital Signal Processing Lecture 17 - IIR Filters (Continued...)
Link Digital Signal Processing Lecture 18 - IIR Filters (Continued...)
Link Digital Signal Processing Lecture 19 - IIR Filters (Continued...)
Link Digital Signal Processing Lecture 20 - Tutorial & Introduction to Computer Aided Design of Filters
Link Digital Signal Processing Lecture 21 - Computer Aided Design of Filters
Link Digital Signal Processing Lecture 22 - FFT and Computer Aided Design of Filters
Link Digital Signal Processing Lecture 23 - Introduction to Lattice Filter
Link Digital Signal Processing Lecture 24 - Lattice Filter (Continued...)
Link Digital Signal Processing Lecture 25 - Effects of Quantization
Link Digital Signal Processing Lecture 26 - Effects of Quantization (Continued...)
Link Digital Signal Processing Lecture 27 - Effects of Quantization (Continued...)
Link Digital Signal Processing Lecture 28 - Effects of Quantization (Continued...)
Link Digital Signal Processing Lecture 29 - Random Signals
Link Digital Signal Processing Lecture 30 - Relationship Between Real and Imaginary Parts of DTFT
Link Digital Signal Processing Lecture 31 - Relationship Between Real and Imaginary Parts of DTFT
Link Digital Signal Processing Lecture 32 - Relationship Between Real and Imaginary Parts of DTFT
Link Digital Signal Processing Lecture 33 - Multi rate Signal Processing
Link Digital Signal Processing Lecture 34 - Multi rate Signal Processing (Continued...)
Link Digital Signal Processing Lecture 35 - Polyphase Decomposition
Link Dynamics of Physical Systems Lecture 1 - Introduction to System Elements
Link Dynamics of Physical Systems Lecture 2 - Newton's Method and Constraints
Link Dynamics of Physical Systems Lecture 3 - Derivation of the Lagrangian Equation
Link Dynamics of Physical Systems Lecture 4 - Using the lagrangian Equation to Obtain Differential Equations (Part-I)
Link Dynamics of Physical Systems Lecture 5 - Using the lagrangian Equation to Obtain Differential Equations (Part-II)
Link Dynamics of Physical Systems Lecture 6 - Using the lagrangian Equation to Obtain Differential Equations (Part-III)
Link Dynamics of Physical Systems Lecture 7 - Using the lagrangian Equation to Obtain Differential Equations (Part-IV)
Link Dynamics of Physical Systems Lecture 8 - Obtaining First Order Equations
Link Dynamics of Physical Systems Lecture 9 - Application of the Hamiltonian Method
Link Dynamics of Physical Systems Lecture 10 - Obtaining Differential Equations Using Kirchoff's Laws
Link Dynamics of Physical Systems Lecture 11 - The Graph Theory Approach for Electrical Circuits (Part-I)
Link Dynamics of Physical Systems Lecture 12 - The Graph Theory Approach for Electrical Circuits (Part-II)
Link Dynamics of Physical Systems Lecture 13 - The Bond Graph Approach - I
Link Dynamics of Physical Systems Lecture 14 - The Bond Graph Approach - II
Link Dynamics of Physical Systems Lecture 15 - The Bond Graph Approach - III
Link Dynamics of Physical Systems Lecture 16 - The Bond Graph Approach - IV
Link Dynamics of Physical Systems Lecture 17 - The Bond Graph Approach - V
Link Dynamics of Physical Systems Lecture 18 - The Bond Graph Approach - VI
Link Dynamics of Physical Systems Lecture 19 - The Bond Graph Approach - VII
Link Dynamics of Physical Systems Lecture 20 - Numerical Solution of Differential Equations
Link Dynamics of Physical Systems Lecture 21 - Dynamics in the State Space
Link Dynamics of Physical Systems Lecture 22 - Vector Field Around Equilibrium Points - I
Link Dynamics of Physical Systems Lecture 23 - Vector Field Around Equilibrium Points - II
Link Dynamics of Physical Systems Lecture 24 - Vector Field Around Equilibrium Points - III
Link Dynamics of Physical Systems Lecture 25 - Vector Field Around Equilibrium Points - IV
Link Dynamics of Physical Systems Lecture 26 - High Dimensional Linear Systems
Link Dynamics of Physical Systems Lecture 27 - Linear Systems with External Input - I
Link Dynamics of Physical Systems Lecture 28 - Linear Systems with External Input - II
Link Dynamics of Physical Systems Lecture 29 - Linear Systems with External Input - III
Link Dynamics of Physical Systems Lecture 30 - Dynamics of Nonlinear Systems - I
Link Dynamics of Physical Systems Lecture 31 - Dynamics of Nonlinear Systems - II
Link Dynamics of Physical Systems Lecture 32 - Dynamics of Nonlinear Systems - III
Link Dynamics of Physical Systems Lecture 33 - Discrete-Time Dynamical Systems - I
Link Dynamics of Physical Systems Lecture 34 - Discrete-Time Dynamical Systems - II
Link Energy Resources and Technology Lecture 1 - Thermodynamics: Fundamentals Of Energy - Energy Resources & Technology
Link Energy Resources and Technology Lecture 2 - Quality of Energy
Link Energy Resources and Technology Lecture 3 - Complete Cycle Analysis of Fossil Fuels
Link Energy Resources and Technology Lecture 4 - Energy in Transportation
Link Energy Resources and Technology Lecture 5 - Other Fossil Fuels
Link Energy Resources and Technology Lecture 6 - Energy Economics : Input-Output Analysis
Link Energy Resources and Technology Lecture 7 - Energy Economics : Input-Output Analysis
Link Energy Resources and Technology Lecture 8 - Thermal Power Plants
Link Energy Resources and Technology Lecture 9 - Thermal Power Plants
Link Energy Resources and Technology Lecture 10 - Hydroelectric Power
Link Energy Resources and Technology Lecture 11 - Hydroelectric Power
Link Energy Resources and Technology Lecture 12 - Nuclear Power Generation
Link Energy Resources and Technology Lecture 13 - Nuclear Fusion Reactors
Link Energy Resources and Technology Lecture 14 - Environmental Effects of Conventional Power
Link Energy Resources and Technology Lecture 15 - Solar Thermal Energy Conversion
Link Energy Resources and Technology Lecture 16 - Solar Concentrating Collectors
Link Energy Resources and Technology Lecture 17 - Photovoltaic Power Generation
Link Energy Resources and Technology Lecture 18 - Photovoltaic Power Generation (Continued.)
Link Energy Resources and Technology Lecture 19 - Photovoltaic Power Generation (Continued.)
Link Energy Resources and Technology Lecture 20 - Photovoltaic Power Generation (Continued.)
Link Energy Resources and Technology Lecture 21 - Wind Energy - I
Link Energy Resources and Technology Lecture 22 - Wind Energy - II
Link Energy Resources and Technology Lecture 23 - Wind Energy - III
Link Energy Resources and Technology Lecture 24 - Wind Energy - IV
Link Energy Resources and Technology Lecture 25 - Wind Energy - V
Link Energy Resources and Technology Lecture 26 - Wind Energy - VI
Link Energy Resources and Technology Lecture 27 - Wind Electrical Conversion - I
Link Energy Resources and Technology Lecture 28 - Wind Electrical Conversion - II
Link Energy Resources and Technology Lecture 29 - Wind Electrical Conversion - III
Link Energy Resources and Technology Lecture 30 - Tidal Energy
Link Energy Resources and Technology Lecture 31 - Tidal Energy
Link Energy Resources and Technology Lecture 32 - Tidal Energy
Link Energy Resources and Technology Lecture 33 - Ocean Thermal Energy Conversion
Link Energy Resources and Technology Lecture 34 - Solar Pond and Wave Power
Link Energy Resources and Technology Lecture 35 - Geothermal Energy
Link Energy Resources and Technology Lecture 36 - Solar Distillation and Biomass Energy
Link Energy Resources and Technology Lecture 37 - Energy Storage
Link Energy Resources and Technology Lecture 38 - Magneto hydrodynamic Power Generation
Link Energy Resources and Technology Lecture 39 - Magneto hydrodynamic Power Generation
Link Energy Resources and Technology Lecture 40 - Hydrogen Economy
Link Estimation of Signals and Systems Lecture 1 - Introduction
Link Estimation of Signals and Systems Lecture 2 - Probability Theory
Link Estimation of Signals and Systems Lecture 3 - Random Variables
Link Estimation of Signals and Systems Lecture 4 - Function of Random Variable Joint Density
Link Estimation of Signals and Systems Lecture 5 - Mean and Variance
Link Estimation of Signals and Systems Lecture 6 - Random Vectors Random Processes
Link Estimation of Signals and Systems Lecture 7 - Random Processes and Linear Systems
Link Estimation of Signals and Systems Lecture 8 - Some Numerical Problems
Link Estimation of Signals and Systems Lecture 9 - Miscellaneous Topics on Random Process
Link Estimation of Signals and Systems Lecture 10 - Linear Signal Models
Link Estimation of Signals and Systems Lecture 11 - Linear Mean Sq.Error Estimation
Link Estimation of Signals and Systems Lecture 12 - Auto Correlation and Power Spectrum Estimation
Link Estimation of Signals and Systems Lecture 13 - Z-Transform Revisited Eigen Vectors/Values
Link Estimation of Signals and Systems Lecture 14 - The Concept of Innovation
Link Estimation of Signals and Systems Lecture 15 - Last Squares Estimation Optimal IIR Filters
Link Estimation of Signals and Systems Lecture 16 - Introduction to Adaptive Filters
Link Estimation of Signals and Systems Lecture 17 - State Estimation
Link Estimation of Signals and Systems Lecture 18 - Kalman Filter-Model and Derivation
Link Estimation of Signals and Systems Lecture 19 - Kalman Filter-Derivation (Continued...)
Link Estimation of Signals and Systems Lecture 20 - Estimator Properties
Link Estimation of Signals and Systems Lecture 21 - The Time-Invariant Kalman Filter
Link Estimation of Signals and Systems Lecture 22 - Kalman Filter-Case Study
Link Estimation of Signals and Systems Lecture 23 - System identification Introductory Concepts
Link Estimation of Signals and Systems Lecture 24 - Linear Regression-Recursive Least Squares
Link Estimation of Signals and Systems Lecture 25 - Variants of LSE
Link Estimation of Signals and Systems Lecture 26 - Least Square Estimation
Link Estimation of Signals and Systems Lecture 27 - Model Order Selection Residual Tests
Link Estimation of Signals and Systems Lecture 28 - Practical Issues in Identification
Link Estimation of Signals and Systems Lecture 29 - Estimation Problems in Instrumentation and Control
Link Estimation of Signals and Systems Lecture 30 - Conclusion
Link Illumination Engineering Lecture 1 - Introduction to Illumination Engineering
Link Illumination Engineering Lecture 2 - Instructional Objectives
Link Illumination Engineering Lecture 3 - Eye and Vision - I
Link Illumination Engineering Lecture 4 - Eye and Vision - II
Link Illumination Engineering Lecture 5 - Laws of Illumination
Link Illumination Engineering Lecture 6 - Photometry
Link Illumination Engineering Lecture 7 - Incandescent Lamps
Link Illumination Engineering Lecture 8 - Discharge Lamps - I
Link Illumination Engineering Lecture 9 - Discharge Lamps - II
Link Illumination Engineering Lecture 10 - Discharge Lamps - III
Link Illumination Engineering Lecture 11 - Illumination Systems - I
Link Illumination Engineering Lecture 12 - Illumination Systems - II
Link Illumination Engineering Lecture 13 - Glare
Link Illumination Engineering Lecture 14 - Color
Link Illumination Engineering Lecture 15 - Interior Lighting
Link Illumination Engineering Lecture 16 - Sports Lighting
Link Illumination Engineering Lecture 17 - Road Lighting
Link Illumination Engineering Lecture 18 - Lighting Calculations
Link Illumination Engineering Lecture 19 - Lighting Applications
Link Illumination Engineering Lecture 20 - Conclusions on Illumination Engineering
Link Industrial Automation and Control Lecture 1 - Introduction
Link Industrial Automation and Control Lecture 2 - Architecture of Industrial Automation Systems
Link Industrial Automation and Control Lecture 3 - Measurement Systems Characteristics
Link Industrial Automation and Control Lecture 4 - Temperature Measurement
Link Industrial Automation and Control Lecture 5 - Pressure, Force and Torque Sensors
Link Industrial Automation and Control Lecture 6 - Motion Sensing
Link Industrial Automation and Control Lecture 7 - Flow Measurement
Link Industrial Automation and Control Lecture 8 - Signal Conditioning
Link Industrial Automation and Control Lecture 9 - Signal Conditioning (Continued.)
Link Industrial Automation and Control Lecture 10 - Data Acquisition Systems
Link Industrial Automation and Control Lecture 11 - Introduction to Automatic Control
Link Industrial Automation and Control Lecture 12 - P-I-D Control
Link Industrial Automation and Control Lecture 13 - PID Control Tuning
Link Industrial Automation and Control Lecture 14 - Feedforward Control Ratio Control
Link Industrial Automation and Control Lecture 15 - Time Delay Systems and Inverse Response Systems
Link Industrial Automation and Control Lecture 16 - Special Control Structures
Link Industrial Automation and Control Lecture 17 - Concluding Lesson on Process Control
Link Industrial Automation and Control Lecture 18 - Introduction to Sequence Control, PLC, RLL
Link Industrial Automation and Control Lecture 19 - Sequence Control. Scan Cycle,Simple RLL Programs
Link Industrial Automation and Control Lecture 20 - Sequence Control. More RLL Elements, RLL Syntax
Link Industrial Automation and Control Lecture 21 - A Structured Design Approach to Sequence
Link Industrial Automation and Control Lecture 22 - PLC Hardware Environment
Link Industrial Automation and Control Lecture 23 - Introduction To CNC Machines
Link Industrial Automation and Control Lecture 24 - Contour generation and Motion Control
Link Industrial Automation and Control Lecture 25 - Flow Control Valves
Link Industrial Automation and Control Lecture 26 - Hydraulic Control Systems - I
Link Industrial Automation and Control Lecture 27 - Hydraulic Control Systems - II
Link Industrial Automation and Control Lecture 28 - Industrial Hydraulic Circuit
Link Industrial Automation and Control Lecture 29 - Pneumatic Control Systems - I
Link Industrial Automation and Control Lecture 30 - Pneumatic Systems - II
Link Industrial Automation and Control Lecture 31 - Energy Savings with Variable Speed Drives
Link Industrial Automation and Control Lecture 32 - DC Motor Drives
Link Industrial Automation and Control Lecture 33 - DC and BLDC Servo Drives
Link Industrial Automation and Control Lecture 34 - Induction Motor Drives
Link Industrial Automation and Control Lecture 35 - Step Motor Drives BLDC Drives
Link Industrial Automation and Control Lecture 36 - Embedded Systems
Link Industrial Automation and Control Lecture 37 - The Fieldbus Network - I
Link Industrial Automation and Control Lecture 38 - The Fieldbus Network - II
Link Industrial Automation and Control Lecture 39 - Higher Level Automation Systems
Link Industrial Automation and Control Lecture 40 - Course Review and Conclusion
Link Industrial Instrumentation Lecture 1 - Introduction to Industrial Instrumentation
Link Industrial Instrumentation Lecture 2 - Dynamic Characteristics
Link Industrial Instrumentation Lecture 3 - Dynamic Characteristics (Continued.)
Link Industrial Instrumentation Lecture 4 - Strain gauge
Link Industrial Instrumentation Lecture 5 - Load cell
Link Industrial Instrumentation Lecture 6 - Torque Measurement
Link Industrial Instrumentation Lecture 7 - Thermistor
Link Industrial Instrumentation Lecture 8 - Thermocouples
Link Industrial Instrumentation Lecture 9 - Resistance Temperature Detector
Link Industrial Instrumentation Lecture 10 - LVDT
Link Industrial Instrumentation Lecture 11 - Capacitance Transducers
Link Industrial Instrumentation Lecture 12 - Flowmeter - I
Link Industrial Instrumentation Lecture 13 - Flowmeter - II
Link Industrial Instrumentation Lecture 14 - Flowmeter - III
Link Industrial Instrumentation Lecture 15 - Flowmeter - IV
Link Industrial Instrumentation Lecture 16 - Flowmeter - V
Link Industrial Instrumentation Lecture 17 - Problems on Temperature Sensors
Link Industrial Instrumentation Lecture 18 - Pressure Sensors
Link Industrial Instrumentation Lecture 19 - Low Pressure Measurement
Link Industrial Instrumentation Lecture 20 - pH and Viscosity Measurement
Link Industrial Instrumentation Lecture 21 - Problem and Solutions On Industrial Instrumentation
Link Industrial Instrumentation Lecture 22 - Signal Conditioning Circuits - I
Link Industrial Instrumentation Lecture 23 - Signal Conditioning Circuits - II
Link Industrial Instrumentation Lecture 24 - Piezoelectric Sensors
Link Industrial Instrumentation Lecture 25 - Ultrasonic Sensors
Link Industrial Instrumentation Lecture 26 - Nucleonic Instrumentation
Link Industrial Instrumentation Lecture 27 - Measurement Of Magnetic Field
Link Industrial Instrumentation Lecture 28 - Optoelectronic Sensor - I
Link Industrial Instrumentation Lecture 29 - Optoelectronic Sensor - II
Link Industrial Instrumentation Lecture 30 - Synchro
Link Industrial Instrumentation Lecture 31 - Dissolved Oxygen Sensors - I
Link Industrial Instrumentation Lecture 32 - Dissolved Oxygen Sensors - II
Link Industrial Instrumentation Lecture 33 - Flapper - Nozzle
Link Industrial Instrumentation Lecture 34 - Smart Sensors
Link Industrial Instrumentation Lecture 35 - Chromatography - I
Link Industrial Instrumentation Lecture 36 - Chromatography - II
Link Industrial Instrumentation Lecture 37 - Pollution Measurement
Link Industrial Instrumentation Lecture 38 - Control Valve - I
Link Industrial Instrumentation Lecture 39 - Control Valve - II
Link Industrial Instrumentation Lecture 40 - Signal Conditioning Integrated Circuits
Link Networks Signals and Systems Lecture 1 - Introduction to Network Elements and Sources
Link Networks Signals and Systems Lecture 2 - Introduction to Linearity and Nonlinearity
Link Networks Signals and Systems Lecture 3 - Distributed & Lumped Parameters 2-port Networks
Link Networks Signals and Systems Lecture 4 - Two-port Parameters Short Circuit,Open Circuit
Link Networks Signals and Systems Lecture 5 - Tutorial
Link Networks Signals and Systems Lecture 6 - Locus Diagram - Introduction to Signals
Link Networks Signals and Systems Lecture 7 - Signals (Continued.) Laplace Transforms
Link Networks Signals and Systems Lecture 8 - Laplace Transform (Continued.)
Link Networks Signals and Systems Lecture 9 - Tutorial on Laplace Transform
Link Networks Signals and Systems Lecture 10 - Frequency Response Bode Plot
Link Networks Signals and Systems Lecture 11 - Bode Plot (Continued.)
Link Networks Signals and Systems Lecture 12 - Bode Plot (Continued.) - Poles & Zeros
Link Networks Signals and Systems Lecture 13 - Driving Point Immittance Functions - Realisability Conditions
Link Networks Signals and Systems Lecture 14 - Two - Element Synthesis
Link Networks Signals and Systems Lecture 15 - Two - Element Synthesis (Continued.)
Link Networks Signals and Systems Lecture 16 - Tutorial
Link Networks Signals and Systems Lecture 17 - Tutorial
Link Networks Signals and Systems Lecture 18 - Graph Theory
Link Networks Signals and Systems Lecture 19 - Graph Theory (Continued.)
Link Networks Signals and Systems Lecture 20 - Graph Theory (Continued.)
Link Networks Signals and Systems Lecture 21 - Graph Theory (Continued.)
Link Networks Signals and Systems Lecture 22 - Image Impedance, Iterative Impedance
Link Networks Signals and Systems Lecture 23 - Image Impedance, Iterative Impedance
Link Networks Signals and Systems Lecture 24 - Characteristic Impedance and Design of Filters
Link Networks Signals and Systems Lecture 25 - Analysis of Resistive Networks Computer Aided
Link Networks Signals and Systems Lecture 26 - R-L-C Two-Terminal Network
Link Networks Signals and Systems Lecture 27 - Parts of Network Functions
Link Networks Signals and Systems Lecture 28 - Parts of Network Functions (Continued.)
Link Networks Signals and Systems Lecture 29 - Tutorial
Link Networks Signals and Systems Lecture 30 - Tutorial (Continued.)
Link Networks Signals and Systems Lecture 31 - Tutorial
Link Networks Signals and Systems Lecture 32 - Synthesis of 2-port Network
Link Networks Signals and Systems Lecture 33 - Synthesis of 2-port Network (Continued.)
Link Networks Signals and Systems Lecture 34 - Synthesis of 2-port Network (Continued.)
Link Networks Signals and Systems Lecture 35 - Fourier Series
Link Networks Signals and Systems Lecture 36 - Fourier Series (Continued.)
Link Power System Analysis Lecture 1 - Introduction to Power system analysis
Link Power System Analysis Lecture 2 - Introduction to Single Line Diagram
Link Power System Analysis Lecture 3 - Transmission Line Parameters
Link Power System Analysis Lecture 4 - Inductance Calculation (Three Phase)
Link Power System Analysis Lecture 5 - Transmission Line Capacitance
Link Power System Analysis Lecture 6 - Transmission Line Capacitance (Continued..)
Link Power System Analysis Lecture 7 - Transmission Line Modeling
Link Power System Analysis Lecture 8 - Transmission Line Modeling Long Line
Link Power System Analysis Lecture 9 - Transmission Line Steady State Operation
Link Power System Analysis Lecture 10 - Transmission Line Steady State Control Voltage
Link Power System Analysis Lecture 11 - Transmission System A Review
Link Power System Analysis Lecture 12 - Transformer Model
Link Power System Analysis Lecture 13 - Synchronous Machine Model
Link Power System Analysis Lecture 14 - Synchronous Machine Model
Link Power System Analysis Lecture 15 - Load Model
Link Power System Analysis Lecture 16 - Power Flow - I
Link Power System Analysis Lecture 17 - Power Flow - II
Link Power System Analysis Lecture 18 - Power Flow - III
Link Power System Analysis Lecture 19 - Power Flow - IV
Link Power System Analysis Lecture 20 - Power Flow - V
Link Power System Analysis Lecture 21 - Power Flow - VI
Link Power System Analysis Lecture 22 - Power Flow - VII
Link Power System Analysis Lecture 23 - Review of Power System Component Models
Link Power System Analysis Lecture 24 - Review of Power Flow Study
Link Power System Analysis Lecture 25 - Short Circuit Analysis
Link Power System Analysis Lecture 26 - Symmetrical Component Analysis
Link Power System Analysis Lecture 27 - Sequence Networks
Link Power System Analysis Lecture 28 - Unbalanced Fault Analysis
Link Power System Analysis Lecture 29 - Unbalanced Fault Analysis
Link Power System Analysis Lecture 30 - Fault Analysis for Large power Systems
Link Power System Analysis Lecture 31 - Bus Impedance Matrix
Link Power System Analysis Lecture 32 - Asymmetrical Fault Analysis Using Z - Bus
Link Power System Analysis Lecture 33 - Power System Stability - I
Link Power System Analysis Lecture 34 - Power System Stability - II
Link Power System Analysis Lecture 35 - Power System Stability - III
Link Power System Analysis Lecture 36 - Power System Stability - IV
Link Power System Analysis Lecture 37 - Power System Stability - V
Link Power System Analysis Lecture 38 - Power System Stability - VI
Link Power System Analysis Lecture 39 - Power System Stability - VII
Link Power System Analysis Lecture 40 - Power System Stability - VIII
Link NOC:Industrial Automation and Control Lecture 1 - Introduction
Link NOC:Industrial Automation and Control Lecture 2 - Introduction (Continued...)
Link NOC:Industrial Automation and Control Lecture 3 - Architecture of Industrial Automation Systems
Link NOC:Industrial Automation and Control Lecture 4 - Architecture of Industrial Automation Systems (Continued...)
Link NOC:Industrial Automation and Control Lecture 5 - Measurement Systems Characteristics
Link NOC:Industrial Automation and Control Lecture 6 - Measurement Systems Characteristics (Continued...)
Link NOC:Industrial Automation and Control Lecture 7 - Data Acquisition Systems
Link NOC:Industrial Automation and Control Lecture 8 - Data Acquisition Systems (Continued...)
Link NOC:Industrial Automation and Control Lecture 9 - Introduction to Automatic Control
Link NOC:Industrial Automation and Control Lecture 10 - Introduction to Automatic Control (Continued...)
Link NOC:Industrial Automation and Control Lecture 11 - P-I-D Control
Link NOC:Industrial Automation and Control Lecture 12 - P-I-D Control (Continued...)
Link NOC:Industrial Automation and Control Lecture 13 - PID Controller Tuning
Link NOC:Industrial Automation and Control Lecture 14 - PID Controller Tuning (Continued...)
Link NOC:Industrial Automation and Control Lecture 15 - Feedforward Control Ratio Control
Link NOC:Industrial Automation and Control Lecture 16 - Feedforward Control Ratio Control (Continued...)
Link NOC:Industrial Automation and Control Lecture 17 - Time Delay Systems and Inverse Response Systems
Link NOC:Industrial Automation and Control Lecture 18 - Time Delay Systems and Inverse Response Systems (Continued...)
Link NOC:Industrial Automation and Control Lecture 19 - Special Control Structures
Link NOC:Industrial Automation and Control Lecture 20 - Special Control Structures (Continued...)
Link NOC:Industrial Automation and Control Lecture 21 - Concluding Lesson on Process Control (Self-study)
Link NOC:Industrial Automation and Control Lecture 22 - Introduction to Sequence Control, PLC, RLL
Link NOC:Industrial Automation and Control Lecture 23 - Introduction to Sequence Control, PLC, RLL (Continued...)
Link NOC:Industrial Automation and Control Lecture 24 - Sequence Control, Scan Cycle, Simple RLL Programs
Link NOC:Industrial Automation and Control Lecture 25 - Sequence Control, Scan Cycle, Simple RLL Programs (Continued...)
Link NOC:Industrial Automation and Control Lecture 26 - Sequence Control, More RLL Elements, RLL Syntax
Link NOC:Industrial Automation and Control Lecture 27 - Sequence Control, More RLL Elements, RLL Syntax (Continued...)
Link NOC:Industrial Automation and Control Lecture 28 - A Structured Design Approach to Sequence Control
Link NOC:Industrial Automation and Control Lecture 29 - A Structured Design Approach to Sequence Control (Continued...)
Link NOC:Industrial Automation and Control Lecture 30 - PLC Hardware Environment
Link NOC:Industrial Automation and Control Lecture 31 - PLC Hardware Environment (Continued...)
Link NOC:Industrial Automation and Control Lecture 32 - Flow Control Valves
Link NOC:Industrial Automation and Control Lecture 33 - Flow Control Valves (Continued...)
Link NOC:Industrial Automation and Control Lecture 34 - Hydraulic Control Systems - I
Link NOC:Industrial Automation and Control Lecture 35 - Hydraulic Control Systems - I (Continued...)
Link NOC:Industrial Automation and Control Lecture 36 - Hydraulic Control Systems - II
Link NOC:Industrial Automation and Control Lecture 37 - Hydraulic Control Systems - II (Continued...)
Link NOC:Industrial Automation and Control Lecture 38 - Industrial Hydraulic Circuit
Link NOC:Industrial Automation and Control Lecture 39 - Industrial Hydraulic Circuit (Continued...)
Link NOC:Industrial Automation and Control Lecture 40 - Pneumatic Control Systems - I
Link NOC:Industrial Automation and Control Lecture 41 - Pneumatic Control Systems - I (Continued...)
Link NOC:Industrial Automation and Control Lecture 42 - Pneumatic Systems - II
Link NOC:Industrial Automation and Control Lecture 43 - Pneumatic Systems - II (Continued...)
Link NOC:Industrial Automation and Control Lecture 44 - Energy Savings with Variable Speed Drives
Link NOC:Industrial Automation and Control Lecture 45 - Energy Savings with Variable Speed Drives (Continued...)
Link NOC:Industrial Automation and Control Lecture 46 - Introduction To CNC Machines
Link NOC:Industrial Automation and Control Lecture 47 - Introduction To CNC Machines
Link NOC:Industrial Automation and Control Lecture 48 - The Fieldbus Network - I
Link NOC:Industrial Automation and Control Lecture 49 - The Fieldbus Network - I (Continued...)
Link NOC:Industrial Automation and Control Lecture 50 - Higher Level Automation Systems
Link NOC:Industrial Automation and Control Lecture 51 - Higher Level Automation Systems (Continued...)
Link NOC:Industrial Automation and Control Lecture 52 - Course Review and Conclusion (Self Study)
Link NOC:Medical Image Analysis Lecture 1 - Introduction to Medical Image Analysis
Link NOC:Medical Image Analysis Lecture 2 - X Ray and CT Imaging
Link NOC:Medical Image Analysis Lecture 3 - Magnetic Resonance Imaging
Link NOC:Medical Image Analysis Lecture 4 - Ultrasound Imaging
Link NOC:Medical Image Analysis Lecture 5 - Optical Microscopy and Molecular Imaging
Link NOC:Medical Image Analysis Lecture 6 - Texture in Medical Images
Link NOC:Medical Image Analysis Lecture 7 - Region Growing and Clustering
Link NOC:Medical Image Analysis Lecture 8 - Random Walks for Segmentation
Link NOC:Medical Image Analysis Lecture 9 - Active Contours for Segmentation
Link NOC:Medical Image Analysis Lecture 10 - Systematic Evaluation and Validation
Link NOC:Medical Image Analysis Lecture 11 - Decision Trees for Segmentation and Classification
Link NOC:Medical Image Analysis Lecture 12 - Random Forests for Segmentation and Classification
Link NOC:Medical Image Analysis Lecture 13 - Neural Networks for Segmentation and Classification
Link NOC:Medical Image Analysis Lecture 14 - Deep Learning for Medical Image Analysis
Link NOC:Medical Image Analysis Lecture 15 - Deep Learning for Medical Image Analysis (Continued...)
Link NOC:Medical Image Analysis Lecture 16 - Retinal Vessel Segmentation
Link NOC:Medical Image Analysis Lecture 17 - Vessel Segmentation in Computed Tomography Scan of Lungs
Link NOC:Medical Image Analysis Lecture 18
Link NOC:Medical Image Analysis Lecture 19 - Tissue Characterization in Ultrasound
Link NOC:Medical Image Analysis Lecture 20
Link NOC:Biomedical Signal Processing Lecture 1 - Motivation
Link NOC:Biomedical Signal Processing Lecture 2 - Preliminaries
Link NOC:Biomedical Signal Processing Lecture 3 - Biomedical Signal Origin and Dynamics
Link NOC:Biomedical Signal Processing Lecture 4 - Biomedical Signal Origin and Dynamics (Continued...)
Link NOC:Biomedical Signal Processing Lecture 5 - Biomedical Signal Origin and Dynamics (Continued...)
Link NOC:Biomedical Signal Processing Lecture 6 - Biomedical Signal Origin and Dynamics (Continued...)
Link NOC:Biomedical Signal Processing Lecture 7 - Artifact Removal
Link NOC:Biomedical Signal Processing Lecture 8 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 9 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 10 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 11 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 12 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 13 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 14 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 15 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 16 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 17 - Artifact Removal (Continued...)
Link NOC:Biomedical Signal Processing Lecture 18 - Event Detection
Link NOC:Biomedical Signal Processing Lecture 19 - Event Detection (Continued...)
Link NOC:Biomedical Signal Processing Lecture 20 - Event Detection (Continued...)
Link NOC:Biomedical Signal Processing Lecture 21 - Event Detection (Continued...)
Link NOC:Biomedical Signal Processing Lecture 22 - Event Detection (Continued...)
Link NOC:Biomedical Signal Processing Lecture 23 - Event Detection (Continued...)
Link NOC:Biomedical Signal Processing Lecture 24 - Event Detection (Continued...)
Link NOC:Biomedical Signal Processing Lecture 25 - Homomorphic Processing
Link NOC:Biomedical Signal Processing Lecture 26 - Homomorphic Processing (Continued...)
Link NOC:Biomedical Signal Processing Lecture 27 - Waveform Analysis
Link NOC:Biomedical Signal Processing Lecture 28 - Waveform Analysis (Continued...)
Link NOC:Biomedical Signal Processing Lecture 29 - Waveform Analysis
Link NOC:Biomedical Signal Processing Lecture 30 - Waveform Analysis (Continued...)
Link NOC:Biomedical Signal Processing Lecture 31 - Waveform Analysis (Continued...)
Link NOC:Biomedical Signal Processing Lecture 32 - Waveform Analysis (Continued...)
Link NOC:Biomedical Signal Processing Lecture 33 - Waveform Analysis (Continued...)
Link NOC:Biomedical Signal Processing Lecture 34 - Frequency Domain Characterisation
Link NOC:Biomedical Signal Processing Lecture 35 - Frequency Domain Characterisation (Continued...)
Link NOC:Biomedical Signal Processing Lecture 36 - Frequency Domain Characterisation (Continued...)
Link NOC:Biomedical Signal Processing Lecture 37 - Frequency Domain Characterisation (Continued...)
Link NOC:Biomedical Signal Processing Lecture 38 - Frequency Domain Characterisation (Continued...)
Link NOC:Biomedical Signal Processing Lecture 39 - Frequency Domain Characterisation (Continued...)
Link NOC:Biomedical Signal Processing Lecture 40 - Modelling of Biomedical Systems
Link NOC:Biomedical Signal Processing Lecture 41 - Modelling of Biomedical Systems (Continued...)
Link NOC:Biomedical Signal Processing Lecture 42 - Modelling of Biomedical Systems (Continued...)
Link NOC:Biomedical Signal Processing Lecture 43 - Modelling of Biomedical Systems (Continued...)
Link NOC:Biomedical Signal Processing Lecture 44 - Modelling of Biomedical Systems (Continued...)
Link NOC:Biomedical Signal Processing Lecture 45 - Modelling of Biomedical Systems (Continued...)
Link NOC:Biomedical Signal Processing Lecture 46 - Modelling of Biomedical Systems (Continued...)
Link NOC:Biomedical Signal Processing Lecture 47 - Tutorial - I
Link NOC:Biomedical Signal Processing Lecture 48 - Tutorial - I (Continued...)
Link NOC:Biomedical Signal Processing Lecture 49 - Tutorial - I (Continued...)
Link NOC:Biomedical Signal Processing Lecture 50 - Tutorial - II
Link NOC:Biomedical Signal Processing Lecture 51 - Tutorial - II (Continued...)
Link NOC:Biomedical Signal Processing Lecture 52 - Tutorial - II (Continued...)
Link NOC:Biomedical Signal Processing Lecture 53 - Tutorial - III
Link NOC:Biomedical Signal Processing Lecture 54 - Tutorial - III (Continued...)
Link NOC:Biomedical Signal Processing Lecture 55 - Tutorial - III (Continued...)
Link NOC:Biomedical Signal Processing Lecture 56 - Tutorial - III (Continued...)
Link NOC:Biomedical Signal Processing Lecture 57 - Tutorial - IV
Link NOC:Biomedical Signal Processing Lecture 58 - Tutorial - IV (Continued...)
Link NOC:Biomedical Signal Processing Lecture 59 - Tutorial - IV (Continued...)
Link NOC:Biomedical Signal Processing Lecture 60 - Tutorial - IV (Continued...)
Link NOC:Biomedical Signal Processing Lecture 61 - Tutorial - IV (Continued...)
Link NOC:Biomedical Signal Processing Lecture 62 - Tutorial - IV (Continued...)
Link NOC:Biomedical Signal Processing Lecture 63 - Tutorial - V
Link NOC:Biomedical Signal Processing Lecture 64 - Tutorial - V (Continued...)
Link NOC:Biomedical Signal Processing Lecture 65 - Tutorial - V (Continued...)
Link NOC:Biomedical Signal Processing Lecture 66 - Tutorial - V (Continued...)
Link NOC:Biomedical Signal Processing Lecture 67 - Tutorial - V (Continued...)
Link NOC:Biomedical Signal Processing Lecture 68 - Live Session
Link NOC:Microprocessors and Microcontrollers Lecture 1 - Introduction
Link NOC:Microprocessors and Microcontrollers Lecture 2 - Introduction (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 3 - Introduction (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 4 - Basic Computer Organization
Link NOC:Microprocessors and Microcontrollers Lecture 5 - Basic computer organization
Link NOC:Microprocessors and Microcontrollers Lecture 6 - Basic Computer Organization
Link NOC:Microprocessors and Microcontrollers Lecture 7 - 8085 Microprocessors
Link NOC:Microprocessors and Microcontrollers Lecture 8 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 9 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 10 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 11 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 12 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 13 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 14 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 15 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 16 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 17 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 18 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 19 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 20 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 21 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 22 - 8085 Microprocessors (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 23 - 8051 Microcontroller
Link NOC:Microprocessors and Microcontrollers Lecture 24 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 25 - 8051Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 26 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 27 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 28 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 29 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 30 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 31 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 32 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 33 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 34 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 35 - 8051 Microcontroller (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 36 - 8051 Programming Examples
Link NOC:Microprocessors and Microcontrollers Lecture 37 - 8051 Programming Examples (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 38 - 8051 Programming Examples (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 39 - 8051 Programming Examples (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 40 - 8051 Programming Examples (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 41 - ARM
Link NOC:Microprocessors and Microcontrollers Lecture 42 - ARM (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 43 - ARM (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 44 - ARM (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 45 - ARM (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 46 - ARM (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 47 - ARM (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 48 - ARM (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 49 - PIC
Link NOC:Microprocessors and Microcontrollers Lecture 50 - PIC, AVR
Link NOC:Microprocessors and Microcontrollers Lecture 51 - AVR (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 52 - AVR (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 53 - Interfacing
Link NOC:Microprocessors and Microcontrollers Lecture 54 - Interfacing (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 55 - Interfacing (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 56 - Interfacing (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 57 - Interfacing (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 58 - Interfacing (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 59 - 8086
Link NOC:Microprocessors and Microcontrollers Lecture 60 - 8086 (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 61 - 8086 (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 62 - 8086 (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 63 - 8086 (Continued...)
Link NOC:Microprocessors and Microcontrollers Lecture 64 - 8087
Link NOC:Deep Learning For Visual Computing Lecture 1 - Introduction to Visual Computing
Link NOC:Deep Learning For Visual Computing Lecture 2 - Feature Extraction for Visual Computing
Link NOC:Deep Learning For Visual Computing Lecture 3 - Feature Extraction with Python
Link NOC:Deep Learning For Visual Computing Lecture 4 - Neural Networks for Visual Computing
Link NOC:Deep Learning For Visual Computing Lecture 5 - Classification with Perceptron Model
Link NOC:Deep Learning For Visual Computing Lecture 6 - Introduction to Deep Learning with Neural Networks
Link NOC:Deep Learning For Visual Computing Lecture 7 - Introduction to Deep Learning with Neural Networks
Link NOC:Deep Learning For Visual Computing Lecture 8 - Multilayer Perceptron and Deep Neural Networks
Link NOC:Deep Learning For Visual Computing Lecture 9 - Multilayer Perceptron and Deep Neural Networks
Link NOC:Deep Learning For Visual Computing Lecture 10 - Classification with Multilayer Perceptron
Link NOC:Deep Learning For Visual Computing Lecture 11 - Autoencoder for Representation Learning and MLP Initialization
Link NOC:Deep Learning For Visual Computing Lecture 12 - MNIST handwritten digits classification using autoencoders
Link NOC:Deep Learning For Visual Computing Lecture 13 - Fashion MNIST classification using autoencoders
Link NOC:Deep Learning For Visual Computing Lecture 14 - ALL-IDB Classification using autoencoders
Link NOC:Deep Learning For Visual Computing Lecture 15 - Retinal Vessel Detection using autoencoders
Link NOC:Deep Learning For Visual Computing Lecture 16 - Stacked Autoencoders
Link NOC:Deep Learning For Visual Computing Lecture 17 - MNIST and Fashion MNIST with Stacked Autoencoders
Link NOC:Deep Learning For Visual Computing Lecture 18 - Denoising and Sparse Autoencoders
Link NOC:Deep Learning For Visual Computing Lecture 19 - Sparse Autoencoders for MNIST classification
Link NOC:Deep Learning For Visual Computing Lecture 20 - Denoising Autoencoders for MNIST classification
Link NOC:Deep Learning For Visual Computing Lecture 21 - Cost Function
Link NOC:Deep Learning For Visual Computing Lecture 22 - Classification cost functions
Link NOC:Deep Learning For Visual Computing Lecture 23 - Optimization Techniques and Learning Rules
Link NOC:Deep Learning For Visual Computing Lecture 24 - Gradient Descent Learning Rule
Link NOC:Deep Learning For Visual Computing Lecture 25 - SGD and ADAM Learning Rules
Link NOC:Deep Learning For Visual Computing Lecture 26 - Convolutional Neural Network Building Blocks
Link NOC:Deep Learning For Visual Computing Lecture 27 - Simple CNN Model: LeNet
Link NOC:Deep Learning For Visual Computing Lecture 28 - LeNet Definition
Link NOC:Deep Learning For Visual Computing Lecture 29 - Training a LeNet for MNIST Classification
Link NOC:Deep Learning For Visual Computing Lecture 30 - Modifying a LeNet for CIFAR
Link NOC:Deep Learning For Visual Computing Lecture 31 - Convolutional Autoencoder and Deep CNN
Link NOC:Deep Learning For Visual Computing Lecture 32 - Convolutional Autoencoder for Representation Learning
Link NOC:Deep Learning For Visual Computing Lecture 33 - AlexNet
Link NOC:Deep Learning For Visual Computing Lecture 34 - VGGNet
Link NOC:Deep Learning For Visual Computing Lecture 35 - Revisiting AlexNet and VGGNet for Computational Complexity
Link NOC:Deep Learning For Visual Computing Lecture 36 - GoogLeNet - Going very deep with convolutions
Link NOC:Deep Learning For Visual Computing Lecture 37 - GoogLeNet
Link NOC:Deep Learning For Visual Computing Lecture 38 - ResNet - Residual Connections within Very Deep Networks and DenseNet - Densely connected networks
Link NOC:Deep Learning For Visual Computing Lecture 39 - ResNet
Link NOC:Deep Learning For Visual Computing Lecture 40 - DenseNet
Link NOC:Deep Learning For Visual Computing Lecture 41 - Space and Computational Complexity in DNN
Link NOC:Deep Learning For Visual Computing Lecture 42 - Assessing the space and computational complexity of very deep CNNs
Link NOC:Deep Learning For Visual Computing Lecture 43 - Domain Adaptation and Transfer Learning in Deep Neural Networks
Link NOC:Deep Learning For Visual Computing Lecture 44 - Transfer Learning a GoogLeNet
Link NOC:Deep Learning For Visual Computing Lecture 45 - Transfer Learning a ResNet
Link NOC:Deep Learning For Visual Computing Lecture 46 - Activation pooling for object localization
Link NOC:Deep Learning For Visual Computing Lecture 47 - Region Proposal Networks (rCNN and Faster rCNN)
Link NOC:Deep Learning For Visual Computing Lecture 48 - GAP + rCNN
Link NOC:Deep Learning For Visual Computing Lecture 49 - Semantic Segmentation with CNN
Link NOC:Deep Learning For Visual Computing Lecture 50 - UNet and SegNet for Semantic Segmentation
Link NOC:Deep Learning For Visual Computing Lecture 51 - Autoencoders and Latent Spaces
Link NOC:Deep Learning For Visual Computing Lecture 52 - Principle of Generative Modeling
Link NOC:Deep Learning For Visual Computing Lecture 53 - Adversarial Autoencoders
Link NOC:Deep Learning For Visual Computing Lecture 54 - Adversarial Autoencoder for Synthetic Sample Generation
Link NOC:Deep Learning For Visual Computing Lecture 55 - Adversarial Autoencoder for Classification
Link NOC:Deep Learning For Visual Computing Lecture 56 - Understanding Video Analysis
Link NOC:Deep Learning For Visual Computing Lecture 57 - Recurrent Neural Networks and Long Short-Term Memory
Link NOC:Deep Learning For Visual Computing Lecture 58 - Spatio-Temporal Deep Learning for Video Analysis
Link NOC:Deep Learning For Visual Computing Lecture 59 - Activity recognition using 3D-CNN
Link NOC:Deep Learning For Visual Computing Lecture 60 - Activity recognition using CNN-LSTM
Link NOC:Power System Engineering Lecture 1
Link NOC:Power System Engineering Lecture 2
Link NOC:Power System Engineering Lecture 3
Link NOC:Power System Engineering Lecture 4
Link NOC:Power System Engineering Lecture 5
Link NOC:Power System Engineering Lecture 6
Link NOC:Power System Engineering Lecture 7
Link NOC:Power System Engineering Lecture 8
Link NOC:Power System Engineering Lecture 9
Link NOC:Power System Engineering Lecture 10
Link NOC:Power System Engineering Lecture 11 - Cables (Continued...)
Link NOC:Power System Engineering Lecture 12 - Transient over voltages and Insulation coordination
Link NOC:Power System Engineering Lecture 13 - Transient over voltages and Insulation coordination (Continued...)
Link NOC:Power System Engineering Lecture 14 - Transient over voltages and Insulation coordination (Continued...)
Link NOC:Power System Engineering Lecture 15 - Transient over voltages and Insulation coordination (Continued...)
Link NOC:Power System Engineering Lecture 16 - Transient over voltages and Insulation coordination (Continued...)
Link NOC:Power System Engineering Lecture 17 - Transient over voltages and Insulation coordination (Continued...)
Link NOC:Power System Engineering Lecture 18 - Transient over voltages and Insulation coordination (Continued...)
Link NOC:Power System Engineering Lecture 19 - Transient over voltages and Insulation coordination (Continued...)
Link NOC:Power System Engineering Lecture 20 - Corona
Link NOC:Power System Engineering Lecture 21 - Corona (Continued...)
Link NOC:Power System Engineering Lecture 22 - Corona (Continued...)
Link NOC:Power System Engineering Lecture 23 - Corona (Continued...), Sag and Tension Analysis
Link NOC:Power System Engineering Lecture 24 - Sag and Tension Analysis (Continued...)
Link NOC:Power System Engineering Lecture 25 - Sag and Tension Analysis (Continued...)
Link NOC:Power System Engineering Lecture 26 - Sag and Tension Analysis (Continued...)
Link NOC:Power System Engineering Lecture 27 - Sag and Tension Analysis (Continued...)
Link NOC:Power System Engineering Lecture 28 - Sag and Tension Analysis (Continued...)
Link NOC:Power System Engineering Lecture 29 - Load flow of radial distribution networks
Link NOC:Power System Engineering Lecture 30 - Load flow of radial distribution networks (Continued...)
Link NOC:Power System Engineering Lecture 31 - Load flow of radial distribution networks (Continued...)
Link NOC:Power System Engineering Lecture 32 - Load flow of radial distribution networks (Continued...)
Link NOC:Power System Engineering Lecture 33 - Load flow of radial distribution networks (Continued...)
Link NOC:Power System Engineering Lecture 34 - Load flow of radial distribution networks (Continued...)
Link NOC:Power System Engineering Lecture 35 - Load flow of radial distribution networks (Continued...)
Link NOC:Power System Engineering Lecture 36 - Load flow of radial distribution networks (Continued...)
Link NOC:Power System Engineering Lecture 37 - Load flow of radial distribution networks (Continued...), Voltage stability of distribution network
Link NOC:Power System Engineering Lecture 38 - Voltage stability of distribution network, Approximate method
Link NOC:Power System Engineering Lecture 39 - Application of capacitors in distribution system
Link NOC:Power System Engineering Lecture 40 - Application of capacitors in distribution system (Continued...)
Link NOC:Power System Engineering Lecture 41 - Application of capacitors in distribution system (Continued...)
Link NOC:Power System Engineering Lecture 42 - Application of capacitors in distribution system (Continued...)
Link NOC:Power System Engineering Lecture 43 - Application of capacitors in distribution system (Continued...)
Link NOC:Power System Engineering Lecture 44 - Application of capacitors in distribution system (Continued...), Load frequency control
Link NOC:Power System Engineering Lecture 45 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 46 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 47 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 48 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 49 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 50 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 51 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 52 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 53 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 54 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 55 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 56 - Load frequency control (Continued...)
Link NOC:Power System Engineering Lecture 57 - Automatic generation control
Link NOC:Power System Engineering Lecture 58 - Automatic generation control (Continued...)
Link NOC:Power System Engineering Lecture 59 - Automatic generation control (Continued...), Unit commitment
Link NOC:Power System Engineering Lecture 60 - Unit commitment (Continued...)
Link NOC:Power System Engineering Lecture 61 - Live Session
Link NOC:Fundamentals of Electrical Engineering Lecture 1 - Basic Concepts, Examples
Link NOC:Fundamentals of Electrical Engineering Lecture 2 - Basic Concepts, Examples (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 3 - Basic Concepts, Examples (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 4 - Basic Concepts, Examples (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 5 - Basic Laws
Link NOC:Fundamentals of Electrical Engineering Lecture 6 - Basic Laws (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 7 - Basic Laws (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 8 - Basic Laws (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 9 - Basic Laws (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 10 - Basic Laws (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 11 - Methods of Circuit Analysis
Link NOC:Fundamentals of Electrical Engineering Lecture 12 - Methods of Circuit Analysis (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 13 - Methods of Circuit Analysis (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 14 - Methods of Circuit Analysis (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 15 - Methods of Circuit Analysis (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 16 - Methods of Circuit Analysis (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 17 - Mesh analysis with current sources, Examples
Link NOC:Fundamentals of Electrical Engineering Lecture 18 - Methods of Circuit Analysis (Continued...) and Circuit Theorems
Link NOC:Fundamentals of Electrical Engineering Lecture 19 - Circuit Theorems (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 20 - Circuit Theorems (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 21 - Circuit Theorems (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 22 - Circuit Theorems (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 23 - Circuit Theorems (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 24 - Circuit Theorems (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 25 - Circuit Theorems (Continued...) and Capacitors and Inductors
Link NOC:Fundamentals of Electrical Engineering Lecture 26 - Capacitors and Inductors (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 27 - Capacitors and Inductors (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 28 - Capacitors and Inductors (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 29 - First Order Circuits
Link NOC:Fundamentals of Electrical Engineering Lecture 30 - First Order Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 31 - First Order Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 32 - First Order Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 33 - First Order Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 34 - First Order Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 35 - First Order Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 36 - First Order Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 37 - Single phase AC circuits
Link NOC:Fundamentals of Electrical Engineering Lecture 38 - Single phase AC circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 39 - Single phase AC circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 40 - Single phase AC circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 41 - Single phase AC circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 42 - Single phase AC circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 43 - Single phase AC circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 44 - Resonance and Maximum Power Transfer Theorem
Link NOC:Fundamentals of Electrical Engineering Lecture 45 - Resonance and Maximum Power Transfer Theorem (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 46 - Resonance and Maximum Power Transfer Theorem (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 47 - Three phase circuits
Link NOC:Fundamentals of Electrical Engineering Lecture 48 - Three phase circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 49 - Three phase circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 50 - Three phase circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 51 - Magnetic Circuits
Link NOC:Fundamentals of Electrical Engineering Lecture 52 - Magnetic Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 53 - Magnetic Circuits (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 54 - Single Phase Transformer
Link NOC:Fundamentals of Electrical Engineering Lecture 55 - Single Phase Transformer (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 56 - Single Phase Transformer (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 57 - Single Phase Transformer (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 58 - Three phase Induction Motors
Link NOC:Fundamentals of Electrical Engineering Lecture 59 - Three phase Induction Motors (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 60 - Three phase Induction Motors (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 61 - Three phase Induction Motors (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 62 - DC Motors
Link NOC:Fundamentals of Electrical Engineering Lecture 63 - DC Motors (Continued...)
Link NOC:Fundamentals of Electrical Engineering Lecture 64 - DC Motors (Continued...)
Link NOC:Digital Circuits Lecture 1 - Introduction
Link NOC:Digital Circuits Lecture 2 - Introduction (Continued...)
Link NOC:Digital Circuits Lecture 3 - Number System
Link NOC:Digital Circuits Lecture 4 - Number System (Continued...)
Link NOC:Digital Circuits Lecture 5 - Number System (Continued...)
Link NOC:Digital Circuits Lecture 6 - Number System (Continued...)
Link NOC:Digital Circuits Lecture 7 - Number System (Continued...)
Link NOC:Digital Circuits Lecture 8 - Boolean Algebra
Link NOC:Digital Circuits Lecture 9 - Boolean Algebra (Continued...)
Link NOC:Digital Circuits Lecture 10 - Boolean Algebra (Continued...)
Link NOC:Digital Circuits Lecture 11 - Boolean Algebra (Continued...)
Link NOC:Digital Circuits Lecture 12 - Boolean Algebra (Continued...)
Link NOC:Digital Circuits Lecture 13 - Boolean Algebra (Continued...)
Link NOC:Digital Circuits Lecture 14 - Logic Gates
Link NOC:Digital Circuits Lecture 15 - Logic Gates (Continued...)
Link NOC:Digital Circuits Lecture 16 - Logic Gates (Continued...)
Link NOC:Digital Circuits Lecture 17 - Logic Gates (Continued...)
Link NOC:Digital Circuits Lecture 18 - Logic Gates (Continued...)
Link NOC:Digital Circuits Lecture 19 - Logic Gates (Continued...)
Link NOC:Digital Circuits Lecture 20 - Arithmetic Circuits
Link NOC:Digital Circuits Lecture 21 - Arithmetic Circuits (Continued...)
Link NOC:Digital Circuits Lecture 22 - Arithmetic Circuits (Continued...)
Link NOC:Digital Circuits Lecture 23 - Decoders, Multiplexers, PLA
Link NOC:Digital Circuits Lecture 24 - Decoders, Multiplexers, PLA (Continued...)
Link NOC:Digital Circuits Lecture 25 - Decoders, Multiplexers, PLA (Continued...)
Link NOC:Digital Circuits Lecture 26 - Decoders, Multiplexers, PLA (Continued...)
Link NOC:Digital Circuits Lecture 27 - Decoders, Multiplexers, PLA (Continued...)
Link NOC:Digital Circuits Lecture 28 - Sequential Circuits
Link NOC:Digital Circuits Lecture 29 - Sequential Circuits (Continued...)
Link NOC:Digital Circuits Lecture 30 - Sequential Circuits (Continued...)
Link NOC:Digital Circuits Lecture 31 - Sequential Circuits (Continued...)
Link NOC:Digital Circuits Lecture 32 - Sequential Circuits (Continued...)
Link NOC:Digital Circuits Lecture 33 - Sequential Circuits (Continued...)
Link NOC:Digital Circuits Lecture 34 - Sequential Circuits (Continued...)
Link NOC:Digital Circuits Lecture 35 - Finite State Machine
Link NOC:Digital Circuits Lecture 36 - Finite State Machine (Continued...)
Link NOC:Digital Circuits Lecture 37 - Data Converters
Link NOC:Digital Circuits Lecture 38 - Data Converters (Continued...)
Link NOC:Digital Circuits Lecture 39 - Data Converters (Continued...)
Link NOC:Digital Circuits Lecture 40 - Data Converters (Continued...)
Link NOC:Digital Circuits Lecture 41 - Memory
Link NOC:Digital Circuits Lecture 42 - Memory (Continued...)
Link NOC:Digital Circuits Lecture 43 - Memory (Continued...)
Link NOC:Digital Circuits Lecture 44 - FPGA
Link NOC:Digital Circuits Lecture 45 - FPGA (Continued...)
Link NOC:Digital Circuits Lecture 46 - VHDL
Link NOC:Digital Circuits Lecture 47 - VHDL(Continued...)
Link NOC:Digital Circuits Lecture 48 - 8085 Microprocessor
Link NOC:Digital Circuits Lecture 49 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 50 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 51 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 52 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 53 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 54 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 55 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 56 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 57 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 58 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 59 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 60 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 61 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 62 - 8085 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 63 - 8086 Microprocessor
Link NOC:Digital Circuits Lecture 64 - 8086 Microprocessor (Continued...)
Link NOC:Digital Circuits Lecture 65 - 8086 Microprocessor (Continued...)
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 1 - Concept of Scalar and Vector Potentials
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 2 - Radiation From a Current Element (Hertzian Dipole)
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 3 - Specific Properties of the Radiated Fields from a Current Element
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 4 - General Properties of Radiated Fields from an Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 5 - Farfield and Radiation Pattern of an Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 6 - Directivity and Gain of an Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 7 - Idea of Efficiency, Beamwidth, Polarisation and Bandwidth
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 8 - Polarization of Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 9 - Impedance of Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 10 - Effective Aperture of an Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 11 - Friss Transmission Equation and Antenna Temperature
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 12 - Dipole And Monopole Antena
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 13 - Dipole And Monopole Antena (Continued...)
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 14 - BALUN
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 15 - Loop Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 16 - Folded Dipole Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 17 - Introduction to Antenna Array
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 18 - Antenna Array Theory
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 19 - Broadside Uniform Linear Array
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 20 - Endfire Linear Uniform Array
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 21 - Parasitic Array and Log Periodic Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 22 - Analysis Procedures of Aperture Antennas
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 23 - Analysis Procedures of Aperture Antenna (Continued...)
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 24 - Horn Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 25 - Horn Antenna (Continued...)
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 26 - Reflector Antennas
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 27 - Paraboloid Reflector Antenna (Continued...)
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 28 - Paraboloid Reflector Antenna (Continued...)
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 29 - Dual Reflector Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 30 - Generalised Analysis of Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 31 - Solution of Wave Equation for Electric and Magnetic Current Densities
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 32 - Farfield Evaluation of Spherical Wave Radiation by Generalised Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 33 - Slot Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 34 - Open Ended Waveguide Antenna and Microstrip Antenna
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 35 - Numerical Evaluation of Wire Antenna Currents
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 36 - Solution of Intregral Equation by Moment Method
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 37 - Array Pattern Synthesis
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 38 - Array Pattern Synthesis (Continued...)
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 39 - Ultra Wideband Antennas
Link NOC:Analysis and Design Principles of Microwave Antennas Lecture 40 - Antenna Measurements
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 1 - Introduction to VLSI Design Flow
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 2 - Introduction to VLSI Design Flow
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 3 - Introduction to VLSI Design Flow
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 4 - Algorithm to Efficient Architecture Mapping
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 5 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 6 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 7 - Tutorial on Algorithm to Efficient Architecture Mapping
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 8 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 9 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 10 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 11 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 12 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 13 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 14 - Algorithm to Efficient Architecture Mapping (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 15 - Efficient Adder Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 16 - Efficient Adder Architecture (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 17 - Efficient Adder Architecture (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 18 - Efficient Adder Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 19 - Efficient Adder Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 20 - Efficient Adder Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 21 - Efficient Adder Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 22 - Efficient Adder Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 23 - Efficient Adder Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 24 - Efficient Adder Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 25 - Pipelining and Parallel Processing
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 26 - Pipelining and Parallel Processing
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 27 - Multiplier Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 28 - Multiplier Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 29 - Multiplier Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 30 - Multiplier Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 31 - Multiplier Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 32 - Multiplier Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 33 - Multiplier Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 34 - Multiplier Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 35 - Squaring Circuit Design
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 36 - Reconfigurable Constant Multiplier Design
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 37 - Reconfigurable Constant Multiplier Design
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 38 - Reconfigurable Constant Multiplier Design
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 39 - Fixed Point Number Representation
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 40 - Fixed Point Number Representation
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 41 - CORDIC Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 42 - CORDIC Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 43 - CORDIC Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 44 - CORDIC Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 45 - Timing Analysis
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 46 - Timing Analysis
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 47 - Timing Analysis
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 48 - Logic Hazard
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 49 - FFT Architecture
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 50 - FFT Architecture (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 51 - Timing analysis Basics
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 52 - Timing analysis Basics (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 53 - Timing analysis Basics (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 54 - Timing Issuesin Digital IC Design
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 55 - Timing Issuesin Digital IC Design (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 56 - Timing Issuesin Digital IC Design (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 57 - Timing Issuesin Digital IC Design (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 58 - Architectural Design of Digital Integrated Circuits
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 59 - Design Tips for Basic Circuits Design (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 60 - Design Tips for Basic Circuits Design (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 61 - Design Tips for Basic Circuits Design (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 62 - Low Power Digital Design
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 63 - Low Power Digital Design (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 64 - Low Power Digital Design
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 65 - Low Power Digital Design (Continued...)
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 66 - Hardware for Machine Learning: Design Considerations Design Tips
Link NOC:Architectural Design of Digital Integrated Circuits Lecture 67 - Hardware for Machine Learning: Design Considerations Design Tips (Continued...)
Link NOC:Electrical Machines-II Lecture 1 - Inductance, Self and Mutual
Link NOC:Electrical Machines-II Lecture 2 - Relationship of Inductances in Transformer
Link NOC:Electrical Machines-II Lecture 3 - Equivalent Circuit from Circuit KVL Equations
Link NOC:Electrical Machines-II Lecture 4 - Co-efficient of Coupling , Energy Stored in Coupled Coils
Link NOC:Electrical Machines-II Lecture 5 - A Single Conductor Generator and Motor
Link NOC:Electrical Machines-II Lecture 6 - Analysis of Single Conductor Generator and Motor
Link NOC:Electrical Machines-II Lecture 7 - Analysis of Single Conductor Generator and Motor (Continued...)
Link NOC:Electrical Machines-II Lecture 8 - Flux Density Distribution in Space and Nature emf
Link NOC:Electrical Machines-II Lecture 9 - Flux Density Distribution in Space and Nature emf (Continued...)
Link NOC:Electrical Machines-II Lecture 10 - From Linear to Rotating Machine
Link NOC:Electrical Machines-II Lecture 11 - From Linear to Rotating Machine (Continued...)
Link NOC:Electrical Machines-II Lecture 12 - Basic Underlying Principle of Operation of Rotating Machine
Link NOC:Electrical Machines-II Lecture 13 - Basic Underlying Principle of Operation of Rotating Machine (Continued...)
Link NOC:Electrical Machines-II Lecture 14 - Flux Density Distribution along the Air Gap
Link NOC:Electrical Machines-II Lecture 15 - Flux Density Distribution along the Air Gap (Continued...)
Link NOC:Electrical Machines-II Lecture 16 - Induced Voltage in a Coil in a Rotating Machine
Link NOC:Electrical Machines-II Lecture 17 - Induced Voltage in a Coil in a Rotating Machine (Continued...)
Link NOC:Electrical Machines-II Lecture 18 - Induced Voltage in a Coil in a Rotating Machine (Continued...)
Link NOC:Electrical Machines-II Lecture 19 - Induced Voltage due to Fundamental and Harmonic Components of Flux Density Distribution
Link NOC:Electrical Machines-II Lecture 20 - Distributed Coils Connected in Series Resultant Voltage
Link NOC:Electrical Machines-II Lecture 21 - Distribution Factor
Link NOC:Electrical Machines-II Lecture 22 - Pitch Factor and Winding Factor
Link NOC:Electrical Machines-II Lecture 23 - How to decide about Short Pitch Angle ϵ
Link NOC:Electrical Machines-II Lecture 24 - Double Layer 3-phase Winding - An Introduction
Link NOC:Electrical Machines-II Lecture 25 - Winding Table for 3-phase Distributed Winding
Link NOC:Electrical Machines-II Lecture 26 - Winding Table for 3-phase Distributed Winding with Examples
Link NOC:Electrical Machines-II Lecture 27 - Winding Table for 3-phase Distributed Winding with Examples (Continued...)
Link NOC:Electrical Machines-II Lecture 28 - 120 degree Phase Spread Winding with Examples
Link NOC:Electrical Machines-II Lecture 29 - Winding Table of 120 degree Phase Spread Coils and Group Connection
Link NOC:Electrical Machines-II Lecture 30 - Introduction to Rotating Magnetic Field
Link NOC:Electrical Machines-II Lecture 31 - Rotating Magnetic Field (Continued...), Mechanical and Electrical Speed
Link NOC:Electrical Machines-II Lecture 32 - Speed and Direction of Rotating Field
Link NOC:Electrical Machines-II Lecture 33 - Synchronous Speed and How to Calculate Induced Voltage in a Coil
Link NOC:Electrical Machines-II Lecture 34 - Introduction to Induction Motor
Link NOC:Electrical Machines-II Lecture 35 - Introduction to Induction Motor (Continued...)
Link NOC:Electrical Machines-II Lecture 36 - General Expression of Torque in Terms of Stator and Rotor Fields
Link NOC:Electrical Machines-II Lecture 37 - Torque Angle and Torque Expression
Link NOC:Electrical Machines-II Lecture 38 - How to Fix Up Positions of Net Field, Rotor Field and Stator Field
Link NOC:Electrical Machines-II Lecture 39 - Slip: Its Importance and Range for Motor Operation
Link NOC:Electrical Machines-II Lecture 40 - Equivalent Circuit of 3-Phase Induction Motor
Link NOC:Electrical Machines-II Lecture 41 - Equivalent Circuit of 3-Phase Induction Motor (Continued...)
Link NOC:Electrical Machines-II Lecture 42 - Equivalent Circuit of 3-Phase Induction Motor (Continued...)
Link NOC:Electrical Machines-II Lecture 43 - Expression for Electromagnetic Torque in terms of Equivalent Circuit Parameters
Link NOC:Electrical Machines-II Lecture 44 - Maximum Electromagnetic Torque and Slip at Which it Occurs
Link NOC:Electrical Machines-II Lecture 45 - Typical Torque Slip Characteristic and Operating Point
Link NOC:Electrical Machines-II Lecture 46 - Change in Torque-slip Characteristic as Supply Voltage and Rotor Resistance are Varied
Link NOC:Electrical Machines-II Lecture 47 - Types of Induction Motor - Slip Ring Type
Link NOC:Electrical Machines-II Lecture 48 - Introduction to Cage Induction Motor
Link NOC:Electrical Machines-II Lecture 49 - Cage Motor Can Operate for Different Stator Poles
Link NOC:Electrical Machines-II Lecture 50 - Core Loss in Induction Motor and Simplified Equivalent Circuit
Link NOC:Electrical Machines-II Lecture 51 - Torque Expression from Simplified Equivalent Circuit and Introduction to Circle Diagram
Link NOC:Electrical Machines-II Lecture 52 - Circle Diagram (Continued...)
Link NOC:Electrical Machines-II Lecture 53 - Exact Power Flow Diagram and Circle Diagram
Link NOC:Electrical Machines-II Lecture 54 - Circle Diagram (Continued...)
Link NOC:Electrical Machines-II Lecture 55 - Circle Diagram: Slip Line
Link NOC:Electrical Machines-II Lecture 56 - Circle Diagram from Test Data
Link NOC:Electrical Machines-II Lecture 57 - Starting of 3 Phase Induction Motor - Introduction
Link NOC:Electrical Machines-II Lecture 58 - DOL and Reactor Starting
Link NOC:Electrical Machines-II Lecture 59 - DOL and Auto Transformer Starting
Link NOC:Electrical Machines-II Lecture 60 - Introduction to Speed Control
Link NOC:Electrical Machines-II Lecture 61 - Idea of VVVF Speed Control of Induction Motor
Link NOC:Electrical Machines-II Lecture 62 - Speed Contro Using Two Motors
Link NOC:Electrical Machines-II Lecture 63 - Electrical Braking of 3 Phase Induction Motor
Link NOC:Electrical Machines-II Lecture 64 - Braking (Continued...)
Link NOC:Electrical Machines-II Lecture 65 - Introduction to Single Phase Induction Motor - Sequence Currents
Link NOC:Electrical Machines-II Lecture 66 - Development of Equivalent Circuit
Link NOC:Electrical Machines-II Lecture 67 - Development of Equivalent Circuit (Continued...)
Link NOC:Electrical Machines-II Lecture 68 - Torque-slip Ch. of 1 ph. I-M Running on Single Winding
Link NOC:Electrical Machines-II Lecture 69 - Introduction to Starting of 1ph. Induction Motor
Link NOC:Electrical Machines-II Lecture 70 - Expression for Starting Torque and Need for Phase Splitting
Link NOC:Electrical Machines-II Lecture 71 - Resistor Split 1 ph. Induction Motor
Link NOC:Electrical Machines-II Lecture 72 - Capacitor Split 1 ph Induction Motor
Link NOC:Electrical Machines-II Lecture 73 - Starting of 1 ph. Induction Motor (Continued...)
Link NOC:Electrical Machines-II Lecture 74 - Synchronous Machine Construction
Link NOC:Electrical Machines-II Lecture 75 - Synchronous Generator - Introduction
Link NOC:Electrical Machines-II Lecture 76 - Synchronisation
Link NOC:Electrical Machines-II Lecture 77 - Expression for Induced Voltage and O.C. Phasor Diagram
Link NOC:Electrical Machines-II Lecture 78 - Loaded Synchronous Generator - Resultant Field
Link NOC:Electrical Machines-II Lecture 79 - Armature Reaction and Synchronous Reactance. Basic Phasor Diagram
Link NOC:Electrical Machines-II Lecture 80 - General Mode of Operation - Rotro Field, Stator Field and Resultant Field
Link NOC:Electrical Machines-II Lecture 81 - Complete Phasor Diagram and Expression for Complex Power
Link NOC:Electrical Machines-II Lecture 82 - Synchronous Motor Operation, Phasor Diagram and Power Expression
Link NOC:Electrical Machines-II Lecture 83 - Effect of Variation of Field Current in Generator
Link NOC:Electrical Machines-II Lecture 84 - Effect of Variation Field Current in Synchronous Motor, Introduction to Salient Pole Machine
Link NOC:Electrical Machines-II Lecture 85 - Analysis of Salient Pole Synchronous Machine
Link NOC:Electrical Machines-II Lecture 86 - Phasor Diagram of Salient Pole Synchronous Machine for Generator and Motor Mode
Link NOC:Electrical Machines-II Lecture 87 - Expression for Load Angle and Expression for Power
Link NOC:Electrical Machines-II Lecture 88 - Phasor Diagrams of Salient Pole Synchronous Generator under Various Conditions
Link NOC:Electrical Machines-II Lecture 89 - Phasor Diagrams of Salient Pole Synchronous Motor under Various Conditions
Link NOC:Electrical Machines-II Lecture 90 - O.C and S.C Test on Synchronous Generator
Link NOC:Digital Electronic Circuits Lecture 1 - Introduction
Link NOC:Digital Electronic Circuits Lecture 2 - Transistor as a switch
Link NOC:Digital Electronic Circuits Lecture 3 - Performance Issues and Introduction to TTL
Link NOC:Digital Electronic Circuits Lecture 4 - Transistor Transistor Logic (TTL)
Link NOC:Digital Electronic Circuits Lecture 5 - CMOS Logic
Link NOC:Digital Electronic Circuits Lecture 6 - Basic Gates and their representations
Link NOC:Digital Electronic Circuits Lecture 7 - Fundamentals of Boolean Algebra
Link NOC:Digital Electronic Circuits Lecture 8 - Boolean Function to Truth Table and Implementaion Issues
Link NOC:Digital Electronic Circuits Lecture 9 - Truth Table to Boolean Function and Implementaion Issues
Link NOC:Digital Electronic Circuits Lecture 10 - Karnugh Map and Digital Circuit Realization
Link NOC:Digital Electronic Circuits Lecture 11 - Karnaugh Map to Entered Variable Map
Link NOC:Digital Electronic Circuits Lecture 12 - Quine - McClusky (QM) Algorithm
Link NOC:Digital Electronic Circuits Lecture 13 - Cost Criteria and Minimization of Multiple Output Functions
Link NOC:Digital Electronic Circuits Lecture 14 - Static 1 Hazard
Link NOC:Digital Electronic Circuits Lecture 15 - Static 0 Hazard and Dynamic Hazard
Link NOC:Digital Electronic Circuits Lecture 16 - Multiplexer: Part I
Link NOC:Digital Electronic Circuits Lecture 17 - Multiplexer: Part II
Link NOC:Digital Electronic Circuits Lecture 18 - Demultiplexer / Decoder
Link NOC:Digital Electronic Circuits Lecture 19 - Decoder with BCD Input and Encoder
Link NOC:Digital Electronic Circuits Lecture 20 - Parity Generator and Checker
Link NOC:Digital Electronic Circuits Lecture 21 - Number System
Link NOC:Digital Electronic Circuits Lecture 22 - Negative Number and 2s Complement Arithmetic
Link NOC:Digital Electronic Circuits Lecture 23 - Arithmetic Building Blocks - I
Link NOC:Digital Electronic Circuits Lecture 24 - Arithmetic Building Blocks - II
Link NOC:Digital Electronic Circuits Lecture 25 - Overflow Detection and BCD Arithmetic
Link NOC:Digital Electronic Circuits Lecture 26 - Magnitude Comparator
Link NOC:Digital Electronic Circuits Lecture 27 - Arithmetic Logic Unit (ALU)
Link NOC:Digital Electronic Circuits Lecture 28 - Unweighted Code
Link NOC:Digital Electronic Circuits Lecture 29 - Error Detection and Correction Code
Link NOC:Digital Electronic Circuits Lecture 30 - Multiplication and Division
Link NOC:Digital Electronic Circuits Lecture 31 - SR Latch and Introduction to Clocked Flip-Flop
Link NOC:Digital Electronic Circuits Lecture 32 - Edge-Triggered Flip-Flop
Link NOC:Digital Electronic Circuits Lecture 33 - Representations of Flip-Flops
Link NOC:Digital Electronic Circuits Lecture 34 - Analysis of Sequential Logic Circuit
Link NOC:Digital Electronic Circuits Lecture 35 - Conversion of Flip-Flops and Flip-Flop Timing Parameters
Link NOC:Digital Electronic Circuits Lecture 36 - Register and Shift Register: PIPO and SISO
Link NOC:Digital Electronic Circuits Lecture 37 - Shift Register: SIPO, PISO and Universal Shift Register
Link NOC:Digital Electronic Circuits Lecture 38 - Application of Shift Register
Link NOC:Digital Electronic Circuits Lecture 39 - Linear Feedback Shift Register
Link NOC:Digital Electronic Circuits Lecture 40 - Serial Addition, Multiplication and Division
Link NOC:Digital Electronic Circuits Lecture 41 - Asynchronous Counter
Link NOC:Digital Electronic Circuits Lecture 42 - Decoding Logic and Synchronous Counter
Link NOC:Digital Electronic Circuits Lecture 43 - Cascading: Mod 2, 3, 5 to Mod 6, 10, 1000 Counter
Link NOC:Digital Electronic Circuits Lecture 44 - Counter Design with Asynchronous Reset and Preset
Link NOC:Digital Electronic Circuits Lecture 45 - Counter Design as Synthesis Problem and Few Other Uses of Counter
Link NOC:Digital Electronic Circuits Lecture 46 - Synthesis of Sequential Logic Circuit: Moore Model and Mealy Model
Link NOC:Digital Electronic Circuits Lecture 47 - Moore Model and Mealy Model: Realization of Digital Logic Circuit
Link NOC:Digital Electronic Circuits Lecture 48 - Algorithmic State Machine (ASM) Chart and Synthesis of Sequential Logic Circuit
Link NOC:Digital Electronic Circuits Lecture 49 - Circuit Realization from ASM Chart and State Minimization
Link NOC:Digital Electronic Circuits Lecture 50 - State Minimization by Implication Table and Partitioning Method
Link NOC:Digital Electronic Circuits Lecture 51 - Digital to Analog Conversion - I
Link NOC:Digital Electronic Circuits Lecture 52 - Digital to Analog Conversion - II
Link NOC:Digital Electronic Circuits Lecture 53 - Analog to Digital Conversion - I
Link NOC:Digital Electronic Circuits Lecture 54 - Analog to Digital Conversion - II
Link NOC:Digital Electronic Circuits Lecture 55 - Certain Performance Issue of ADC and DAC
Link NOC:Digital Electronic Circuits Lecture 56 - Introduction to Memory
Link NOC:Digital Electronic Circuits Lecture 57 - Static Random Access Memory (SRAM)
Link NOC:Digital Electronic Circuits Lecture 58 - Dynamic RAM (DRAM) and Memory Expansion
Link NOC:Digital Electronic Circuits Lecture 59 - Read Only Memory (ROM)
Link NOC:Digital Electronic Circuits Lecture 60 - PAL, PLA, CPLD, FPGA
Link NOC:Power System Dynamics, Control and Monitoring Lecture 1 - Power System stability
Link NOC:Power System Dynamics, Control and Monitoring Lecture 2 - Power System stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 3 - Power System stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 4 - Power System stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 5 - Power System stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 6 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 7 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 8 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 9 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 10 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 11 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 12 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 13 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 14 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 15 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 16 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 17 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 18 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 19 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 20 - Power System Stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 21 - Power System stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 22 - Power System stability, Eigen properties of the state matrix
Link NOC:Power System Dynamics, Control and Monitoring Lecture 23 - Power System stability, Eigen properties of the state matrix (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 24 - Power System stability, Eigen properties of the state matrix (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 25 - Power System stability, Eigen properties of the state matrix (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 26 - Power System stability, Eigen properties of the state matrix (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 27 - Power System stability, Eigen properties of the state matrix, Transient stability
Link NOC:Power System Dynamics, Control and Monitoring Lecture 28 - Transient stability
Link NOC:Power System Dynamics, Control and Monitoring Lecture 29 - Transient stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 30 - Transient stability (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 31 - Transient stability
Link NOC:Power System Dynamics, Control and Monitoring Lecture 32 - Transient stability, Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 33 - Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 34 - Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 35 - Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 36 - Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 37 - Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 38 - Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 39 - Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 40 - Automatic generation control conventional scenario
Link NOC:Power System Dynamics, Control and Monitoring Lecture 41 - AGC in deregulated system
Link NOC:Power System Dynamics, Control and Monitoring Lecture 42 - AGC in deregulated system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 43 - AGC in deregulated system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 44 - AGC in deregulated system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 45 - AGC in deregulated system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 46 - AGC in deregulated system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 47 - AGC in deregulated system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 48 - AGC in deregulated system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 49 - AGC in deregulated system, Reactive power and voltage control
Link NOC:Power System Dynamics, Control and Monitoring Lecture 50 - Reactive power and voltage control
Link NOC:Power System Dynamics, Control and Monitoring Lecture 51 - Reactive power and voltage control, State extimation in power system
Link NOC:Power System Dynamics, Control and Monitoring Lecture 52 - State estimation in power system
Link NOC:Power System Dynamics, Control and Monitoring Lecture 53 - State estimation in power system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 54 - State estimation in power system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 55 - State estimation in power system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 56 - State estimation in power system (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 57 - Hydraulic turbine modelling
Link NOC:Power System Dynamics, Control and Monitoring Lecture 58 - Hydraulic turbine modelling (Continued...)
Link NOC:Power System Dynamics, Control and Monitoring Lecture 59 - Subsynchronous oscillation
Link NOC:Power System Dynamics, Control and Monitoring Lecture 60 - Subsynchronous oscillation, Windup and non windup limits
Link NOC:Evolution of Air Interface towards 5G Lecture 1 - Evolution of wireless Communication
Link NOC:Evolution of Air Interface towards 5G Lecture 2 - Evolution of wireless Communication Standards From 2G to 5G
Link NOC:Evolution of Air Interface towards 5G Lecture 3 - Evolution of wireless Communication Standards From 2G to 5G (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 4 - Evolution of wireless Communication Standards From 2G to 5G (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 5 - Evolution of wireless Communication Standards From 2G to 5G (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 6 - Requirements and operating scenarios of 5G
Link NOC:Evolution of Air Interface towards 5G Lecture 7 - Requirements and operating scenarios of 5G (Continued....)
Link NOC:Evolution of Air Interface towards 5G Lecture 8 - 5G scenarios
Link NOC:Evolution of Air Interface towards 5G Lecture 9 - Ultra reliable low latency communication
Link NOC:Evolution of Air Interface towards 5G Lecture 10 - Designing 5G new radio
Link NOC:Evolution of Air Interface towards 5G Lecture 11 - Fundamental Framework for waveform analysis
Link NOC:Evolution of Air Interface towards 5G Lecture 12 - Fundamental Framework for waveform analysis (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 13 - Waveform Design Aspects of 2G
Link NOC:Evolution of Air Interface towards 5G Lecture 14 - Waveforms in 3G
Link NOC:Evolution of Air Interface towards 5G Lecture 15 - Waveforms in 3G (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 16 - Waveform in 4G and 5G (OFDM)
Link NOC:Evolution of Air Interface towards 5G Lecture 17 - Waveform in 4G and 5G (OFDM) (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 18 - Waveform in 4G and 5G (OFDM) (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 19 - Waveform in 4G and 5G (OFDMA)
Link NOC:Evolution of Air Interface towards 5G Lecture 20 - Waveform in 4G and 5G (OFDMA, SCFDMA, SCFDE)
Link NOC:Evolution of Air Interface towards 5G Lecture 21 - Waveform in 4G and 5G (SCFDMA Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 22 - Waveform in 5G
Link NOC:Evolution of Air Interface towards 5G Lecture 23 - Waveform in 5G Numerology
Link NOC:Evolution of Air Interface towards 5G Lecture 24 - Frame Structure in 5G NR
Link NOC:Evolution of Air Interface towards 5G Lecture 25 - Numerology in 5G and adaptive subcarrier bandwidth
Link NOC:Evolution of Air Interface towards 5G Lecture 26 - Numerology in 5G (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 27 - Waveforms beyond 5G
Link NOC:Evolution of Air Interface towards 5G Lecture 28 - Waveforms beyond 5G (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 29 - Waveforms beyond 5G (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 30 - Waveforms beyond 5G (Continued...)
Link NOC:Evolution of Air Interface towards 5G Lecture 31 - Waveform beyond 5G (Precoded GFDM)
Link NOC:Evolution of Air Interface towards 5G Lecture 32 - Comparison of waveforms
Link NOC:Evolution of Air Interface towards 5G Lecture 33 - Channel models for performance evaluation - Part I
Link NOC:Evolution of Air Interface towards 5G Lecture 34 - Channel models for performance evaluation - Part II
Link NOC:Evolution of Air Interface towards 5G Lecture 35 - Channel models for performance evaluation - Part III
Link NOC:Evolution of Air Interface towards 5G Lecture 36 - MIMO Signal Processing (Receive Diversity)
Link NOC:Evolution of Air Interface towards 5G Lecture 37 - MIMO Signal Processing
Link NOC:Evolution of Air Interface towards 5G Lecture 38 - MIMO Signal Processing (Capacity)
Link NOC:Evolution of Air Interface towards 5G Lecture 39 - MIMO Signal Processing (Capacity and Massive MIMO)
Link NOC:Evolution of Air Interface towards 5G Lecture 40 - Hybrid beamforming (mmWave)
Link NOC:Electrical Measurement and Electronic Instruments Lecture 1 - PMMC Instruments
Link NOC:Electrical Measurement and Electronic Instruments Lecture 2 - Electrodynamic Instrument
Link NOC:Electrical Measurement and Electronic Instruments Lecture 3 - Demonstration of PMMC and Electrodynamic Instruments
Link NOC:Electrical Measurement and Electronic Instruments Lecture 4 - Features of PMMC and Electrodynamic Instruments
Link NOC:Electrical Measurement and Electronic Instruments Lecture 5 - Moving Iron Instruments
Link NOC:Electrical Measurement and Electronic Instruments Lecture 6 - Demonstration of Moving Iron Instrument
Link NOC:Electrical Measurement and Electronic Instruments Lecture 7 - Electrostatic Instrument
Link NOC:Electrical Measurement and Electronic Instruments Lecture 8 - Derivation of Deflecting Torque in Electrodynamic, Electrostatic and Moving Iron Instrument
Link NOC:Electrical Measurement and Electronic Instruments Lecture 9 - Damping and Eddy Current Damping
Link NOC:Electrical Measurement and Electronic Instruments Lecture 10 - Dynamics of the Moving Coil and Damping
Link NOC:Electrical Measurement and Electronic Instruments Lecture 11 - Dynamics of the Moving Coil and Damping (Continued...)
Link NOC:Electrical Measurement and Electronic Instruments Lecture 12 - Ballistic Galvanometer
Link NOC:Electrical Measurement and Electronic Instruments Lecture 13 - Ammeter - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 14 - Ammeter - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 15 - Voltmeter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 16 - Ohmmeters - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 17 - Ohmmeters - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 18 - Rectifier based Voltmeters and Ammeter - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 19 - Rectifier based Voltmetesr and Ammeter - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 20 - Resistance measurement with a Voltmeter and an Ammeter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 21 - Four-Terminal Resistance
Link NOC:Electrical Measurement and Electronic Instruments Lecture 22 - Problems: Four Terminal Resistance
Link NOC:Electrical Measurement and Electronic Instruments Lecture 23 - Error Calculation
Link NOC:Electrical Measurement and Electronic Instruments Lecture 24 - Sensitivity, Accuracy, and Resolution of Wheatstone Bridge
Link NOC:Electrical Measurement and Electronic Instruments Lecture 25 - Kelvin Double Bridge
Link NOC:Electrical Measurement and Electronic Instruments Lecture 26 - High Resistance Measurement
Link NOC:Electrical Measurement and Electronic Instruments Lecture 27 - Wattmeter Connection and Compensated Wattmeter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 28 - Single Phase Energy Meter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 29 - Demonstration: 1. Eddy Current Braking 2.Creation of Magnetic Field Without Moving Objects
Link NOC:Electrical Measurement and Electronic Instruments Lecture 30 - Single Phase Energy Meter (Continued...)
Link NOC:Electrical Measurement and Electronic Instruments Lecture 31 - Connection of Energy Meter, Wattmeter, and Three Phase Supply
Link NOC:Electrical Measurement and Electronic Instruments Lecture 32 - DC Potentiometer
Link NOC:Electrical Measurement and Electronic Instruments Lecture 33 - AC Potentiometer
Link NOC:Electrical Measurement and Electronic Instruments Lecture 34 - Polar potentiometer and phase shifter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 35 - Polar potentiometer
Link NOC:Electrical Measurement and Electronic Instruments Lecture 36 - Co-ordinate potentiometer
Link NOC:Electrical Measurement and Electronic Instruments Lecture 37 - Kelvin-Varley potential divider
Link NOC:Electrical Measurement and Electronic Instruments Lecture 38 - Impedance measurement
Link NOC:Electrical Measurement and Electronic Instruments Lecture 39 - AC bridges - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 40 - AC bridges - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 41 - AC bridges - III
Link NOC:Electrical Measurement and Electronic Instruments Lecture 42 - Current transformer and potential transformer
Link NOC:Electrical Measurement and Electronic Instruments Lecture 43 - Review of transformer and magnetic circuit
Link NOC:Electrical Measurement and Electronic Instruments Lecture 44 - Errrors in Instrument ransformer
Link NOC:Electrical Measurement and Electronic Instruments Lecture 45 - Flux density measurement with Ballistic Galvanometer
Link NOC:Electrical Measurement and Electronic Instruments Lecture 46 - Flux density measurement with Ballistic Galvanometer (Continued...)
Link NOC:Electrical Measurement and Electronic Instruments Lecture 47 - Background: From Flip Flop to Counters - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 48 - Background: From Flip Flop to Counters - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 49 - Background: Operational Amplifiers - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 50 - Background: Operational Amplifiers - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 51 - Background: Operational Amplifiers - III
Link NOC:Electrical Measurement and Electronic Instruments Lecture 52 - Background: Operational Amplifiers - IV
Link NOC:Electrical Measurement and Electronic Instruments Lecture 53 - Inverting amplifier versus Schmitt Trigger
Link NOC:Electrical Measurement and Electronic Instruments Lecture 54 - Non-inverting amplifier versus Schmitt Trigger
Link NOC:Electrical Measurement and Electronic Instruments Lecture 55 - Difference amplifier - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 56 - Difference amplifier - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 57 - Difference amplifier - III
Link NOC:Electrical Measurement and Electronic Instruments Lecture 58 - Digital frequency meter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 59 - Digital frequency meter and Schmitt Trigger
Link NOC:Electrical Measurement and Electronic Instruments Lecture 60 - Schmitt Trigger
Link NOC:Electrical Measurement and Electronic Instruments Lecture 61 - Schmitt Trigger
Link NOC:Electrical Measurement and Electronic Instruments Lecture 62 - Digital frequency meter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 63 - Linear ramp type digital voltmeter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 64 - Dual slope digital voltmeter - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 65 - Dual slope digital voltmeter - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 66 - Dual slope digital voltmeter and Integrator circuit
Link NOC:Electrical Measurement and Electronic Instruments Lecture 67 - Digital ramp type voltmeter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 68 - Digital ramp type voltmeter and Successive approximation type voltmeter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 69 - ADC and DAC - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 70 - ADC and DAC - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 71 - Why we need electronic Instruments
Link NOC:Electrical Measurement and Electronic Instruments Lecture 72 - Instruments with op-amp based amplifiers - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 73 - Instruments with op-amp based amplifiers - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 74 - Instruments with op-amp based amplifiers - III
Link NOC:Electrical Measurement and Electronic Instruments Lecture 75 - Instrumentation Amplifier
Link NOC:Electrical Measurement and Electronic Instruments Lecture 76 - Function generator
Link NOC:Electrical Measurement and Electronic Instruments Lecture 77 - 555-Timer circuit
Link NOC:Electrical Measurement and Electronic Instruments Lecture 78 - Astable and monostable oscillator circuits
Link NOC:Electrical Measurement and Electronic Instruments Lecture 79 - Pulse generator
Link NOC:Electrical Measurement and Electronic Instruments Lecture 80 - Oscilloscope - I
Link NOC:Electrical Measurement and Electronic Instruments Lecture 81 - Oscilloscope - II
Link NOC:Electrical Measurement and Electronic Instruments Lecture 82 - Emitter follower voltmeter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 83 - Linear ohmmeter
Link NOC:Electrical Measurement and Electronic Instruments Lecture 84 - Ramp generator
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 1 - Historical Development and Application
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 2 - Radar Bands and System Modeling
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 3 - Radar Equation
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 4 - Some Basic Concepts of Pulsed Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 5 - Some Basic Concepts of Pulsed Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 6 - Some Basic Concepts of Pulsed Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 7 - Some Basic Concepts of Pulsed Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 8 - Tutorial Problems on Basic Concepts of Radar - Part I
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 9 - Tutorial Problems on Basic Concepts of Radar - Part II
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 10 - CW Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 11 - CW Radar Mathematical Model and Applications
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 12 - FM-CW Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 13 - Double Frequency CW Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 14 - Pulsed Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 15 - MTI Filter
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 16 - Clutter and Single DLC
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 17 - Double DLC and Recursive MTI Filter
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 18 - Multiple prf MTI Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 19 - Multiple prf MTI Radar and Clutter Attenuation
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 20 - MTI Improvement Factor
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 21 - Tutorial Problems on CW and Pulsed Radar - Part I
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 22 - Tutorial Problems on CW and Pulsed Radar - Part II
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 23 - Pulsed Doppler Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 24 - Pulsed Doppler Radar (Continued...) and Search Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 25 - Tracking Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 26 - Tracking Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 27 - Tracking Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 28 - Tracking Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 29 - Tracking Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 30 - Tracking Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 31 - Tracking Radar (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 32 - Tutorial Problems on Search and Tracking Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 33 - Detection in Radar Receiver
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 34 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 35 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 36 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 37 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 38 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 39 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 40 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 41 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 42 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 43 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 44 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 45 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 46 - Detection in Radar Receiver (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 47 - Tutorial Problems on Detection in Radar Receiver
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 48 - SAR Processing
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 49 - SAR Processing (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 50 - SAR Processing (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 51 - SAR Processor
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 52 - Tutorial
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 53 - Statistical Detection Theory: Introduction
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 54 - Statistical Detection Theory (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 55 - Statistical Detection Theory (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 56 - Statistical Detection Theory (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 57 - Statistical Detection Theory (Continued...)
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 58 - Tutorial
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 59 - Ground Penetrating Radar
Link NOC:Principles and Techniques of Modern Radar Systems Lecture 60 - GPR Measurements and Microwave Tomography
Link NOC:Electrical Machines-I Lecture 1 - Magnetic Circuit and Transformer
Link NOC:Electrical Machines-I Lecture 2 - Magnetising Current from B-H Curve
Link NOC:Electrical Machines-I Lecture 3 - Ideal Transformer, Dot Convention and Phasor Diagram
Link NOC:Electrical Machines-I Lecture 4 - Operation of Ideal Operation with Load Connected
Link NOC:Electrical Machines-I Lecture 5 - Equivalent Circuit of Ideal Transformer
Link NOC:Electrical Machines-I Lecture 6 - Rating of Single Phase Transformer: Rated Current and Rated Voltage with Example
Link NOC:Electrical Machines-I Lecture 7 - Transformer with Multiple Coils
Link NOC:Electrical Machines-I Lecture 8 - Modelling of Practical Transformer - I
Link NOC:Electrical Machines-I Lecture 9 - Modelling of Practical Transformer - II
Link NOC:Electrical Machines-I Lecture 10 - Modelling of Practical Transformer - III
Link NOC:Electrical Machines-I Lecture 11 - Core Loss - Eddy Current Loss
Link NOC:Electrical Machines-I Lecture 12 - Factors on Eddy Current Loss Depends
Link NOC:Electrical Machines-I Lecture 13 - Hysteresis Loss
Link NOC:Electrical Machines-I Lecture 14 - Exact Equivalent Circuit
Link NOC:Electrical Machines-I Lecture 15 - Approximate Equivalent Circuit
Link NOC:Electrical Machines-I Lecture 16 - Determination of Equivalent Circuit Parameters - No Load Test
Link NOC:Electrical Machines-I Lecture 17 - Short Circuit Test
Link NOC:Electrical Machines-I Lecture 18 - Choosing Sides to Carry Out O.C / S.C Test
Link NOC:Electrical Machines-I Lecture 19 - Efficiency of Transformer - Losses
Link NOC:Electrical Machines-I Lecture 20 - Efficiency (Continued...)
Link NOC:Electrical Machines-I Lecture 21 - Condition for Maximum Efficiency When Load Power Factor Constant
Link NOC:Electrical Machines-I Lecture 22 - Family of Efficiency Curve at Various Power Factor and Energy Efficiency
Link NOC:Electrical Machines-I Lecture 23 - Load Description and Energy Efficiency
Link NOC:Electrical Machines-I Lecture 24 - Regulation: its Expression
Link NOC:Electrical Machines-I Lecture 25 - Regulation: its Expression (Continued...)
Link NOC:Electrical Machines-I Lecture 26 - Auto Transformer - Introduction
Link NOC:Electrical Machines-I Lecture 27 - AutoTransformer versus Two Winding Transformer
Link NOC:Electrical Machines-I Lecture 28 - AutoTransformer versus Two Winding Transformer (Continued...)
Link NOC:Electrical Machines-I Lecture 29 - Numerical Problems on Ideal Auto Transformer
Link NOC:Electrical Machines-I Lecture 30 - Two Winding Transformer Connected as Auto Transformer
Link NOC:Electrical Machines-I Lecture 31 - Practical Auto Transformer
Link NOC:Electrical Machines-I Lecture 32 - Equivalent Circuit of an Auto Transformer
Link NOC:Electrical Machines-I Lecture 33 - Polarity Test and Sumpner Test
Link NOC:Electrical Machines-I Lecture 34 - 3 Phase Transformer Using 3 Single Phase Transformer
Link NOC:Electrical Machines-I Lecture 35 - Various Connections of 3-Phase Transformer - I
Link NOC:Electrical Machines-I Lecture 36 - Various Connections of 3-Phase Transformer - II
Link NOC:Electrical Machines-I Lecture 37 - Vector Group of 3-Phase Transformer
Link NOC:Electrical Machines-I Lecture 38 - Vector Group (Continued...)
Link NOC:Electrical Machines-I Lecture 39 - Open Delta Connection
Link NOC:Electrical Machines-I Lecture 40 - 3-Phase Cone Type and Shell Type Transformer
Link NOC:Electrical Machines-I Lecture 41 - Zig Zag Connection
Link NOC:Electrical Machines-I Lecture 42 - Effect 3rd Harmonic Exciting Current and Flux
Link NOC:Electrical Machines-I Lecture 43 - Choosing Transformer Connection
Link NOC:Electrical Machines-I Lecture 44 - Choosing Transformer Connection (Continued...)
Link NOC:Electrical Machines-I Lecture 45 - Phase Conversion using Transformer: Scott Connection
Link NOC:Electrical Machines-I Lecture 46 - Scott Connection (Continued...)
Link NOC:Electrical Machines-I Lecture 47 - 3 Phase to 6 Phase Conversion O.C / S.C Test on 3 Phase Transformer
Link NOC:Electrical Machines-I Lecture 48 - Parallel Operation of Transformers - I
Link NOC:Electrical Machines-I Lecture 49 - Parallel Operation of Transformers - II
Link NOC:Electrical Machines-I Lecture 50 - Parallel Operation of Transformers - III
Link NOC:Electrical Machines-I Lecture 51 - Specific Magnetic and Electric Loadings
Link NOC:Electrical Machines-I Lecture 52 - ooling of Transformer and Fillings of Transformer
Link NOC:Electrical Machines-I Lecture 53 - Output Equation of 3- Phase Transformer
Link NOC:Electrical Machines-I Lecture 54 - Introduction to D.C Machine
Link NOC:Electrical Machines-I Lecture 55 - Single Conductor D.C Generator / Motor Operation
Link NOC:Electrical Machines-I Lecture 56 - Homopolar D.C Generator
Link NOC:Electrical Machines-I Lecture 57 - Homopolar D.C Motor
Link NOC:Electrical Machines-I Lecture 58 - Introduction to Rotating D.C Machines
Link NOC:Electrical Machines-I Lecture 59 - Armature Winding of D.C Machine - I
Link NOC:Electrical Machines-I Lecture 60 - Armature Winding of D.C Machine - II
Link NOC:Electrical Machines-I Lecture 61 - Armature Winding of D.C Machine - III
Link NOC:Electrical Machines-I Lecture 62 - Generated Voltage Across the Armature
Link NOC:Electrical Machines-I Lecture 63 - Electromagnetic Troque in D.C Machine
Link NOC:Electrical Machines-I Lecture 64 - Generator and Motor Operation - Basics
Link NOC:Electrical Machines-I Lecture 65 - O.C.C and Load Characteristic of Separately Excited Generators
Link NOC:Electrical Machines-I Lecture 66 - Voltage Build Up in Shunt Generator
Link NOC:Electrical Machines-I Lecture 67 - Load Characteristic of Shunt Generator
Link NOC:Electrical Machines-I Lecture 68 - Qualitative Discussion on Armature Reaction
Link NOC:Electrical Machines-I Lecture 69 - Ill Effects of Armature Reaction
Link NOC:Electrical Machines-I Lecture 70 - Compensating and Interpoles
Link NOC:Electrical Machines-I Lecture 71 - Armature Reaction (Continued...)
Link NOC:Electrical Machines-I Lecture 72 - Field Flux Density, Armature Flux Density and Resultant Field Distribution
Link NOC:Electrical Machines-I Lecture 73 - Field Patterns for Both Motor and Generators
Link NOC:Electrical Machines-I Lecture 74 - Demagnetising and Cross Magnetising mmf for Brush Shifted Machine
Link NOC:Electrical Machines-I Lecture 75 - Calculation of Compensating, Interpole and Series Field Turns
Link NOC:Electrical Machines-I Lecture 76 - Estimating Armature and Field Resistance from its Rating
Link NOC:Electrical Machines-I Lecture 77 - Power Flow Diagram, Rotational Loss
Link NOC:Electrical Machines-I Lecture 78 - Shunt Motor: Basic Equation
Link NOC:Electrical Machines-I Lecture 79 - Starting of D.C Motor - 3-Point Starter
Link NOC:Electrical Machines-I Lecture 80 - Speed Control of Shunt Motor - I
Link NOC:Electrical Machines-I Lecture 81 - Speed Control of Shunt Motor - II
Link NOC:Electrical Machines-I Lecture 82 - Speed Control of Shunt Motor - III
Link NOC:Electrical Machines-I Lecture 83 - Field Control (Continued...)
Link NOC:Electrical Machines-I Lecture 84 - D.C Motor Braking
Link NOC:Electrical Machines-I Lecture 85 - Introduction to Series Motor
Link NOC:Electrical Machines-I Lecture 86 - Series Motor Characteristics
Link NOC:Electrical Machines-I Lecture 87 - Series Motor Speed Control
Link NOC:Electrical Machines-I Lecture 88 - Universal Motor
Link NOC:Electrical Machines-I Lecture 89 - Swinburne Test
Link NOC:Electrical Machines-I Lecture 90 - Hopkinson Test
Link NOC:Electrical Machines-I Lecture 91 - Efficiency Calculation
Link NOC:Electrical Machines-I Lecture 92 - Field Test on D.C Series Motor
Link NOC:Electrical Machines-I Lecture 93 - Simplex Wave winding
Link NOC:Electrical Machines-I Lecture 94 - Wave Winding (Continued...)
Link NOC:VLSI Signal Processing Lecture 1 - Graphical Representation of Signals
Link NOC:VLSI Signal Processing Lecture 2 - Signal Flow Graph
Link NOC:VLSI Signal Processing Lecture 3 - Data Flow Graph, Critical Path
Link NOC:VLSI Signal Processing Lecture 4 - Dependence Graph, Basics of Retiming
Link NOC:VLSI Signal Processing Lecture 5 - Retiming Theorem
Link NOC:VLSI Signal Processing Lecture 6 - Forward Path and Loop Retiming
Link NOC:VLSI Signal Processing Lecture 7 - Loop Bound and Iteration Bound
Link NOC:VLSI Signal Processing Lecture 8 - Cutset Retiming
Link NOC:VLSI Signal Processing Lecture 9 - Retiming IIR Filters
Link NOC:VLSI Signal Processing Lecture 10 - Adaptive Filter Basics (LMS Algorithm)
Link NOC:VLSI Signal Processing Lecture 11 - Retiming LMS
Link NOC:VLSI Signal Processing Lecture 12 - Retiming Delayed LMS
Link NOC:VLSI Signal Processing Lecture 13 - Parallel Processing in DSP by Unfolding
Link NOC:VLSI Signal Processing Lecture 14 - Basic Unfolding Relation
Link NOC:VLSI Signal Processing Lecture 15 - Retiming for Unfolding
Link NOC:VLSI Signal Processing Lecture 16 - Loop Unfolding
Link NOC:VLSI Signal Processing Lecture 17 - Iteration bound for Loops
Link NOC:VLSI Signal Processing Lecture 18 - Bitserial, Digit serial and Word serial Structures
Link NOC:VLSI Signal Processing Lecture 19 - Unfolding a Switch
Link NOC:VLSI Signal Processing Lecture 20 - Unfolding Bit Serial Systems
Link NOC:VLSI Signal Processing Lecture 21 - Folding of DFG
Link NOC:VLSI Signal Processing Lecture 22 - Folding Examples - IIR Filter
Link NOC:VLSI Signal Processing Lecture 23 - Retiming for Folding
Link NOC:VLSI Signal Processing Lecture 24 - Introduction to Delay Optimization by Folding
Link NOC:VLSI Signal Processing Lecture 25 - Life Time Analysis of Storage Variables
Link NOC:VLSI Signal Processing Lecture 26 - Foward Backward Data Allocation
Link NOC:VLSI Signal Processing Lecture 27 - Life Time Analysis of Storage Variables in a Digital Filter
Link NOC:VLSI Signal Processing Lecture 28 - Delay Folded Realization of a Digital Filter
Link NOC:VLSI Signal Processing Lecture 29 - Polyphase Decomposition of Sequences
Link NOC:VLSI Signal Processing Lecture 30 - Hardware Efficient 2 - Parallel FIR Filters
Link NOC:VLSI Signal Processing Lecture 31 - Hardware Efficient 3 - Parallel FIR Filters
Link NOC:VLSI Signal Processing Lecture 32 - Introduction to First Level Architectures
Link NOC:VLSI Signal Processing Lecture 33 - 2's Complement Number Systems
Link NOC:VLSI Signal Processing Lecture 34 - Multiplication of Two Binary Numbers
Link NOC:VLSI Signal Processing Lecture 35 - Carry Ripple and Carry Save Array
Link NOC:VLSI Signal Processing Lecture 36 - Bit Serial Multipliers
Link NOC:VLSI Signal Processing Lecture 37 - Bit Serial Digital Filters
Link NOC:VLSI Signal Processing Lecture 38 - Baugh Wooley Multiplier
Link NOC:VLSI Signal Processing Lecture 39 - Distributed Arithmetic
Link NOC:Analog Electronic Circuits Lecture 1 - Introduction to the course
Link NOC:Analog Electronic Circuits Lecture 2 - Introduction to the constituent topics of the course and the Layout
Link NOC:Analog Electronic Circuits Lecture 3 - Revisit to pre-requisite topics
Link NOC:Analog Electronic Circuits Lecture 4 - Revisit to pre-requisite topics (Continued...)
Link NOC:Analog Electronic Circuits Lecture 5 - Analysis of Simple Non-Linear Circuit
Link NOC:Analog Electronic Circuits Lecture 6 - Analysis of Simple Non-linear Circuit (Continued...)
Link NOC:Analog Electronic Circuits Lecture 7 - Revisiting BJT Characteristic
Link NOC:Analog Electronic Circuits Lecture 8 - Revisiting BJT Characteristics (Continued...)
Link NOC:Analog Electronic Circuits Lecture 9 - Revisiting BJT Characteristics (Continued...)
Link NOC:Analog Electronic Circuits Lecture 10 - Revisiting MOSFET
Link NOC:Analog Electronic Circuits Lecture 11 - Revisiting MOSFET (Continued...)
Link NOC:Analog Electronic Circuits Lecture 12 - Revisiting MOSFET (Continued...)
Link NOC:Analog Electronic Circuits Lecture 13 - Revisiting MOSFET (Continued...)
Link NOC:Analog Electronic Circuits Lecture 14 - Analysis of simple non-linear circuit containing a BJT
Link NOC:Analog Electronic Circuits Lecture 15 - Analysis of simple non-linear circuit containing a BJT (Continued...)
Link NOC:Analog Electronic Circuits Lecture 16 - Analysis of simple non-linear circuit containing a MOSFET
Link NOC:Analog Electronic Circuits Lecture 17 - Analysis of simple non-linear circuit containing a MOSFET (Continued...)
Link NOC:Analog Electronic Circuits Lecture 18 - Linearization of non-linear circuit containing BJT
Link NOC:Analog Electronic Circuits Lecture 19 - Linearization of non-linear circuit containing BJT (Continued...)
Link NOC:Analog Electronic Circuits Lecture 20 - Linearization of non-linear circuit containing MOSFET
Link NOC:Analog Electronic Circuits Lecture 21 - Linearization of non-linear circuit containing MOSFET (Continued...)
Link NOC:Analog Electronic Circuits Lecture 22 - Linear models of Amplifiers - Part A
Link NOC:Analog Electronic Circuits Lecture 23 - Linear models of Amplifiers - Part B
Link NOC:Analog Electronic Circuits Lecture 24 - Common Emitter Amplifier - Part A
Link NOC:Analog Electronic Circuits Lecture 25 - Common Emitter Amplifier - Part B
Link NOC:Analog Electronic Circuits Lecture 26 - Common Emitter Amplifier (Continued...) - Part A
Link NOC:Analog Electronic Circuits Lecture 27 - Common Emitter Amplifier (Continued...) - Part B
Link NOC:Analog Electronic Circuits Lecture 28 - Common Emitter Amplifier (Continued...) - Numerical examples - Part A
Link NOC:Analog Electronic Circuits Lecture 29 - Common Emitter Amplifier (Continued...) - Numerical examples - Part B
Link NOC:Analog Electronic Circuits Lecture 30 - Common Emitter Amplifier (Continued...) - Design guidelines - Part A
Link NOC:Analog Electronic Circuits Lecture 31 - Common Emitter Amplifier (Continued...) - Design guidelines - Part B
Link NOC:Analog Electronic Circuits Lecture 32 - Common Source Amplifier - Part A
Link NOC:Analog Electronic Circuits Lecture 33 - Common Source Amplifier - Part B
Link NOC:Analog Electronic Circuits Lecture 34 - Common Source Amplifier (Continued...) Numerical examples and design guidelines - Part B
Link NOC:Analog Electronic Circuits Lecture 35 - Frequency Response of CE and CS Amplifiers - Part A
Link NOC:Analog Electronic Circuits Lecture 36 - Frequency Response of CE and CS Amplifiers - Part B
Link NOC:Analog Electronic Circuits Lecture 37 - Frequency Response of CE and CS Amplifiers - Part C
Link NOC:Analog Electronic Circuits Lecture 38 - Frequency Response of CE and CS Amplifiers (Continued...) - Part A
Link NOC:Analog Electronic Circuits Lecture 39 - Frequency Response of CE And CS Amplifiers (Continued...) - Part B
Link NOC:Analog Electronic Circuits Lecture 40 - Frequency Response of CE/CS Amplifiers Considering High Frequency Models of BJT and MOSFET - Part A
Link NOC:Analog Electronic Circuits Lecture 41 - Frequency Response of CE/CS Amplifiers Considering High Frequency Models of BJT and MOSFET - Part B
Link NOC:Analog Electronic Circuits Lecture 42 - Frequency Response of CE/CS Amplifiers Considering High Frequency Models of BJT And MOSFET - Part C
Link NOC:Analog Electronic Circuits Lecture 43 - Limitation of CE and CS Amplifiers in Cascading
Link NOC:Analog Electronic Circuits Lecture 44 - Common Collector and Common Drain Amplifiers
Link NOC:Analog Electronic Circuits Lecture 45 - Common Collector and Common Drain Amplifiers (Continued...): Analysis - Part A
Link NOC:Analog Electronic Circuits Lecture 46 - Common Collector and Common Drain Amplifiers (Continued...): Analysis - Part B
Link NOC:Analog Electronic Circuits Lecture 47 - Common Collector and Common Drain Amplifiers (Continued...): Numerical Examples - Part A
Link NOC:Analog Electronic Circuits Lecture 48 - Common Collector and Common Drain Amplifiers (Continued...): Numerical Examples - Part B
Link NOC:Analog Electronic Circuits Lecture 49 - Common Base and Common Gate Amplifiers : Analysis - Part A
Link NOC:Analog Electronic Circuits Lecture 50 - Common Base and Common Gate Amplifiers : Analysis - Part B
Link NOC:Analog Electronic Circuits Lecture 51 - Common Base and Common Gate Amplifiers (Continued...) : Numerical Examples - Part A
Link NOC:Analog Electronic Circuits Lecture 52 - Common Base and Common Gate Amplifiers (Continued...) : Numerical Examples - Part B
Link NOC:Analog Electronic Circuits Lecture 53 - Common Base and Common Gate Amplifiers (Continued...) : Numerical Examples - Part C
Link NOC:Analog Electronic Circuits Lecture 54 - Common Base and Common Gate Amplifiers (Continued...) : Numerical Examples - Part D
Link NOC:Analog Electronic Circuits Lecture 55 - Multi-Transistor Amplifiers: Operation and Analysis - Part A
Link NOC:Analog Electronic Circuits Lecture 56 - Multi-Transistor Amplifiers: Operation and Analysis - Part B
Link NOC:Analog Electronic Circuits Lecture 57 - Multi-Transistor Amplifiers: Operation and Analysis - Part C
Link NOC:Analog Electronic Circuits Lecture 58 - Multi-Transistor Amplifiers (Continued...): Numerical Examples - Part A
Link NOC:Analog Electronic Circuits Lecture 59 - Multi-Transistor Amplifiers (Continued...): Numerical Examples - Part B
Link NOC:Analog Electronic Circuits Lecture 60 - Multi-Transistor Amplifiers (Continued...): Numerical Examples - Part C
Link NOC:Analog Electronic Circuits Lecture 61 - Multi-Transistor Amplifiers: Cascode Amplifier - Part A
Link NOC:Analog Electronic Circuits Lecture 62 - Multi-Transistor Amplifiers: Cascode Amplifier - Part B
Link NOC:Analog Electronic Circuits Lecture 63 - Multi-Transistor Amplifiers: Cascode Amplifier (Continued...) - Numerical Examples - Part A
Link NOC:Analog Electronic Circuits Lecture 64 - Multi-Transistor Amplifiers: Cascode Amplifier (Continued...) - Numerical Examples - Part B
Link NOC:Analog Electronic Circuits Lecture 65 - Multi-Transistor Amplifiers: Cascode Amplifier (Continued...) - Numerical Examples - Part C
Link NOC:Analog Electronic Circuits Lecture 66 - Multi-Transistor Amplifiers: Amplifier With Active Load - Part A
Link NOC:Analog Electronic Circuits Lecture 67 - Multi-Transistor Amplifiers: Amplifier With Active Load - Part B
Link NOC:Analog Electronic Circuits Lecture 68 - Multi-Transistor Amplifiers: Amplifier With Active Load (Continued...) - Numerical Examples - Part A
Link NOC:Analog Electronic Circuits Lecture 69 - Multi-Transistor Amplifiers: Amplifier With Active Load (Continued...) - Numerical Examples - Part B
Link NOC:Analog Electronic Circuits Lecture 70 - Single-ended Vs Differential Signaling and Basic Model of a Differential Amplifier
Link NOC:Analog Electronic Circuits Lecture 71 - Single-ended Vs Differential Signaling and Basic Model of a Differential Amplifier (Continued...)
Link NOC:Analog Electronic Circuits Lecture 72 - Single-ended Vs Differential Signaling and Basic Model of a Differential Amplifier (Continued...)
Link NOC:Analog Electronic Circuits Lecture 73 - Single-ended Vs Differential Signaling and Basic Model of a Differential Amplifier (Continued...)
Link NOC:Analog Electronic Circuits Lecture 74 - Single-ended Vs Differential Signaling and Basic Model of a Differential Amplifier (Continued...)
Link NOC:Analog Electronic Circuits Lecture 75 - Differential Amplifier : Basic Structure and Principle of Operation
Link NOC:Analog Electronic Circuits Lecture 76 - Differential Amplifier : Basic Structure and Principle of Operation (Continued...)
Link NOC:Analog Electronic Circuits Lecture 77 - Differential Amplifier : Analysis and Numerical Examples
Link NOC:Analog Electronic Circuits Lecture 78 - Differential Amplifier : Analysis and Numerical Examples (Continued...)
Link NOC:Analog Electronic Circuits Lecture 79 - Differential Amplifier : Analysis and Numerical Examples (Continued...)
Link NOC:Analog Electronic Circuits Lecture 80 - Differential Amplifier : Analysis and Numerical Examples (Continued...)
Link NOC:Analog Electronic Circuits Lecture 81 - Current mirror circuits - Part A
Link NOC:Analog Electronic Circuits Lecture 82 - Current mirror circuits - Part B
Link NOC:Analog Electronic Circuits Lecture 83 - Usage of current mirror - Part A
Link NOC:Analog Electronic Circuits Lecture 84 - Usage of current mirror - Part B
Link NOC:Analog Electronic Circuits Lecture 85 - Usage of current mirror - Part C
Link NOC:Analog Electronic Circuits Lecture 86 - Numerical examples on current mirror and its applications - Part A
Link NOC:Analog Electronic Circuits Lecture 87 - Numerical examples on current mirror and its applications - Part B
Link NOC:Analog Electronic Circuits Lecture 88 - Numerical examples on current mirror and its applications - Part C
Link NOC:Analog Electronic Circuits Lecture 89 - Numerical examples on current mirror and its applications - Part D
Link NOC:Analog Electronic Circuits Lecture 90 - Feedback system - Part A
Link NOC:Analog Electronic Circuits Lecture 91 - Feedback system - Part B
Link NOC:Analog Electronic Circuits Lecture 92 - Feedback system - Part C
Link NOC:Analog Electronic Circuits Lecture 93 - Feedback system - Part D
Link NOC:Analog Electronic Circuits Lecture 94 - Feedback system - Part E
Link NOC:Analog Electronic Circuits Lecture 95 - Effect of feedback on frequency response - Part A
Link NOC:Analog Electronic Circuits Lecture 96 - Effect of feedback on frequency response - Part B
Link NOC:Analog Electronic Circuits Lecture 97 - Applications of feedback in amplifier circuits - Part A
Link NOC:Analog Electronic Circuits Lecture 98 - Applications of feedback in amplifier circuits - Part B
Link NOC:Analog Electronic Circuits Lecture 99 - Applications of feedback in amplifier circuits - Part C
Link NOC:Network Analysis Lecture 1 - Introduction: KVL, KCL and Power Balance
Link NOC:Network Analysis Lecture 2 - Voltage and Current Sources
Link NOC:Network Analysis Lecture 3 - Simple Networks with Voltage and Current Sources
Link NOC:Network Analysis Lecture 4 - Mesh Analysis - I
Link NOC:Network Analysis Lecture 5 - Mesh Analysis - II
Link NOC:Network Analysis Lecture 6 - Nodal Analysis - I
Link NOC:Network Analysis Lecture 7 - Nodal Analysis - II
Link NOC:Network Analysis Lecture 8 - Nodal Analysis - III
Link NOC:Network Analysis Lecture 9 - Inductor - I
Link NOC:Network Analysis Lecture 10 - Initial Condition for Inductor
Link NOC:Network Analysis Lecture 11 - Energy Stored in Inductor with Example
Link NOC:Network Analysis Lecture 12 - R-L Series Circuit Analysis
Link NOC:Network Analysis Lecture 13 - Retrieving Energy or Discharging of Inductor Energy
Link NOC:Network Analysis Lecture 14 - Capacitor: Relationship of Voltage and Current and Initial Condition
Link NOC:Network Analysis Lecture 15 - Charging of a Capacitor - Voltage, Current and Energy During Charging
Link NOC:Network Analysis Lecture 16 - Discharge of a Charged Capacitor
Link NOC:Network Analysis Lecture 17 - Linearity of R,L,C - Inductor with Initial Current and Capacitor with Initial Voltage
Link NOC:Network Analysis Lecture 18 - General Method for Solving Linear Differential Equation - I
Link NOC:Network Analysis Lecture 19 - General Method for Solving Linear Differential Equation - II
Link NOC:Network Analysis Lecture 20 - General Method for Solving Linear Differential Equation - III
Link NOC:Network Analysis Lecture 21 - Problem Solving: Application
Link NOC:Network Analysis Lecture 22 - R-L Circuit with Sinusoidal Excitation
Link NOC:Network Analysis Lecture 23 - R-C Circuit with Sinusoidal Exponential
Link NOC:Network Analysis Lecture 24 - Solution Due to Exponential Forcing Function
Link NOC:Network Analysis Lecture 25 - Mesh and Nodal Analysis with Time Varying Source
Link NOC:Network Analysis Lecture 26 - Circuit Analysis with Phasor - I
Link NOC:Network Analysis Lecture 27 - Circuit Analysis with Phasor - II
Link NOC:Network Analysis Lecture 28 - Circuit Analysis with Phasor - III
Link NOC:Network Analysis Lecture 29 - Concept of Active and Reactive Power in A.C Circuit - I
Link NOC:Network Analysis Lecture 30 - Concept of Active and Reactive Power in A.C Circuit - II
Link NOC:Network Analysis Lecture 31 - Expression for Complex Power in A.C Circuit
Link NOC:Network Analysis Lecture 32 - Numerical Example
Link NOC:Network Analysis Lecture 33 - Mesh and Nodal Analysis in A.C Circuit, Introduction to Impulse Function
Link NOC:Network Analysis Lecture 34 - Odd and Even Functions, Relation between Unit Step and Impulse Function
Link NOC:Network Analysis Lecture 35 - Solution of Differential Equation with Impulse Excitation
Link NOC:Network Analysis Lecture 36 - Numerical Example when Excitation is Impulse
Link NOC:Network Analysis Lecture 37 - Self and Mutual Inductances - I
Link NOC:Network Analysis Lecture 38 - Dot Convention in Mutually Coupled Coils
Link NOC:Network Analysis Lecture 39 - Mutually Coupled Coils in Series and Parallel
Link NOC:Network Analysis Lecture 40 - Energy Stored in Mutually Coupled Coils
Link NOC:Network Analysis Lecture 41 - Steady State Response with Sinusoidal Excitation when the Coils are Mutually Coupled
Link NOC:Network Analysis Lecture 42 - Basics of Signals in Brief
Link NOC:Network Analysis Lecture 43 - Laplace Transform - I
Link NOC:Network Analysis Lecture 44 - Laplace Transform - II
Link NOC:Network Analysis Lecture 45 - Laplace Transform Applied to Circuit Analysis - I
Link NOC:Network Analysis Lecture 46 - Laplace Transform Applied to Circuit Analysis - II
Link NOC:Network Analysis Lecture 47 - Numerical Examples - I
Link NOC:Network Analysis Lecture 48 - Numerical Examples - II
Link NOC:Network Analysis Lecture 49 - General Second Order Circuit Analysis with L.T - I
Link NOC:Network Analysis Lecture 50 - General Second Order Circuit Analysis with L.T - II
Link NOC:Network Analysis Lecture 51 - Network Theorem - I
Link NOC:Network Analysis Lecture 52 - Network Theorem - II
Link NOC:Network Analysis Lecture 53 - Norton's Theorem
Link NOC:Network Analysis Lecture 54 - Thevenin Theorem
Link NOC:Network Analysis Lecture 55 - Star-Delta and Delta-Star Transformation
Link NOC:Network Analysis Lecture 56 - Telligen's Theorem
Link NOC:Network Analysis Lecture 57 - Reciprocity Theorem
Link NOC:Network Analysis Lecture 58 - Maximum Power Transfer Theorem
Link NOC:Network Analysis Lecture 59 - Graph Theory Applied to Network Analysis - I
Link NOC:Network Analysis Lecture 60 - Graph Theory Applied to Network Analysis - II
Link NOC:Network Analysis Lecture 61 - Graph Theory Applied to Network Analysis - III
Link NOC:Network Analysis Lecture 62 - Graph Theory Applied to Network Analysis - IV
Link NOC:Network Analysis Lecture 63 - Graph Theory Applied to Network Analysis - V
Link NOC:Network Analysis Lecture 64 - Mesh Analysis with Graph Theory
Link NOC:Network Analysis Lecture 65 - Nodal Analysis with Graph Theory
Link NOC:Network Analysis Lecture 66 - Cut-Set Analysis with Graph Theory
Link NOC:Network Analysis Lecture 67 - Numerical Examples of Network Analysis with Graph Theory
Link NOC:Network Analysis Lecture 68 - Circuit Analysis with Dependent Sources - I
Link NOC:Network Analysis Lecture 69 - Circuit Analysis with Dependent Sources - II
Link NOC:Network Analysis Lecture 70 - Circuit Analysis with Dependent Sources - III
Link NOC:Network Analysis Lecture 71 - Two Port Network - I
Link NOC:Network Analysis Lecture 72 - Two Port Network - II
Link NOC:Network Analysis Lecture 73 - Two Port Network - III
Link NOC:Network Analysis Lecture 74 - Two Port Network - IV
Link NOC:Network Analysis Lecture 75 - Two Port Network - V
Link NOC:Network Analysis Lecture 76 - Two Port Network - VI
Link NOC:Network Analysis Lecture 77 - Two Port Network - VII
Link NOC:Network Analysis Lecture 78 - Gyrator
Link NOC:Network Analysis Lecture 79 - Ideal Op - Amp
Link NOC:Network Analysis Lecture 80 - Examples of Ideal Op-Amp Circuits - I
Link NOC:Network Analysis Lecture 81 - Examples of Ideal Op-Amp Circuits - II
Link NOC:Network Analysis Lecture 82 - General Impedance Transfer Circuit and Concluding Remarks
Link NOC:Power System Protection Lecture 1 - Faults in Power System
Link NOC:Power System Protection Lecture 2 - Elements and Features of Protection Scheme
Link NOC:Power System Protection Lecture 3 - Fault Analysis Review - Sequence Components
Link NOC:Power System Protection Lecture 4 - Fault Analysis Review - Sequence Components (Continued...)
Link NOC:Power System Protection Lecture 5 - Numerical Relaying Concept
Link NOC:Power System Protection Lecture 6 - Discrete Fourier Transform
Link NOC:Power System Protection Lecture 7 - Recursive and Half Cycle DFT and Cosine Filter
Link NOC:Power System Protection Lecture 8 - Least Square Technique
Link NOC:Power System Protection Lecture 9 - Frequency Response of Phasor Estimation techniques
Link NOC:Power System Protection Lecture 10 - In the Presence of Decaying DC
Link NOC:Power System Protection Lecture 11 - Overcurrent Relay Characteristics
Link NOC:Power System Protection Lecture 12 - Overcurrent Relay Coordination
Link NOC:Power System Protection Lecture 13 - Relay Coordination with Fuse
Link NOC:Power System Protection Lecture 14 - Introduction to Directional Relaying
Link NOC:Power System Protection Lecture 15 - Positive Sequence Directional Relay
Link NOC:Power System Protection Lecture 16 - Negative and Zero Sequence Directional Relay
Link NOC:Power System Protection Lecture 17 - Superimposed Component Based Directional Relaying
Link NOC:Power System Protection Lecture 18 - Introduction to Distance Relay
Link NOC:Power System Protection Lecture 19 - Fault Classification
Link NOC:Power System Protection Lecture 20 - Apparent Impedance Calculation
Link NOC:Power System Protection Lecture 21 - Distance Relay Implementation
Link NOC:Power System Protection Lecture 22 - Application to Double Circuit Line
Link NOC:Power System Protection Lecture 23 - Multi-terminal Lines
Link NOC:Power System Protection Lecture 24 - Protection of series compensated lines - Part I
Link NOC:Power System Protection Lecture 25 - Protection of series compensated lines - Part II
Link NOC:Power System Protection Lecture 26 - Effect of Fault Resistance
Link NOC:Power System Protection Lecture 27 - Load Encroachment
Link NOC:Power System Protection Lecture 28 - Power Swing
Link NOC:Power System Protection Lecture 29 - Power Swing Detection Techniques - Part I
Link NOC:Power System Protection Lecture 30 - Power Swing Detection Techniques - Part II
Link NOC:Power System Protection Lecture 31 - Adaptive Distance Relaying
Link NOC:Power System Protection Lecture 32 - Communication Assisted Relaying Scheme
Link NOC:Power System Protection Lecture 33 - Current Transformer - Part I
Link NOC:Power System Protection Lecture 34 - Current Transformer - Part II
Link NOC:Power System Protection Lecture 35 - Capacitor Voltage Transformer
Link NOC:Power System Protection Lecture 36 - Fiber Optic Sensors
Link NOC:Power System Protection Lecture 37 - Introduction to Transformer Protection
Link NOC:Power System Protection Lecture 38 - Differential Relay
Link NOC:Power System Protection Lecture 39 - Steps in Differential Relay Processing
Link NOC:Power System Protection Lecture 40 - Inrush Detection
Link NOC:Power System Protection Lecture 41 - CT Saturation, Negative Sequence Differential and Restricted Earth Fault Relay
Link NOC:Power System Protection Lecture 42 - Line Differential - Part I
Link NOC:Power System Protection Lecture 43 - Line Differential - Part II
Link NOC:Power System Protection Lecture 44 - Busbar Protection
Link NOC:Power System Protection Lecture 45 - Fault Characteristics of Renewable Sources
Link NOC:Power System Protection Lecture 46 - Protection Challenges of Distribution Systems with Renewables
Link NOC:Power System Protection Lecture 47 - Protection challenges of transmission systems with renewables
Link NOC:Power System Protection Lecture 48 - Traveling Wave Basics
Link NOC:Power System Protection Lecture 49 - Protection using Travelling Waves
Link NOC:Power System Protection Lecture 50 - Fault Location using Travelling Wave
Link NOC:Power System Protection Lecture 51 - Wide Area Measurement Basics
Link NOC:Power System Protection Lecture 52 - Wide Area Measurement for Protection
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 1 - Tx- Rx Structure
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 2 - Rx -Structure
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 3 - Fundamental of Ray-Tracing model
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 4 - General channel model - Part I
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 5 - General channel model - Part I (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 6 - General channel model - Part I (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 7 - General channel model - Part II
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 8 - Wireless channel-A ray tracing model - Part II
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 9 - Wireless channel-A ray tracing model - Part II (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 10 - Wireless channel-A ray tracing model - Part II (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 11 - Wireless channel-A ray tracing model - Part II (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 12 - RMS Delay spread and Doppler Effect on channel
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 13 - Time Varing Model
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 14 - Doppler Impact on coherence BW
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 15 - Introduction to time series
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 16 - AR,ARMA,MA process
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 17 - Doppler with AR process model
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 18 - Coherence time and parameter summery
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 19 - Basic ISI channel
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 20 - Channel estimation and Equalizer
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 21 - precoder and MIMO
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 22 - precoder and MIMO (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 23 - Basics of mmwave spectrum
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 24 - Angle of arrival and angle of departure
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 25 - 3D concepts, AoA,AoD
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 26 - mmWave channel model with RX beaming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 27 - mmWave channel model with RX beaming (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 28 - mmWave channel model with RX beaming (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 29 - mmWave channel model with RX beaming (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 30 - mmwave channel model (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 31 - mmWave channel model (Continued...) -Tx side multiple antenna
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 32 - Basics of Beamforming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 33 - Single Antenna beamforming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 34 - Concept of antenna many fold vector
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 35 - 3D Concept of antenna many fold vector
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 36 - Different Geometry of antennafrom electrical point of view
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 37 - Basics of Beamforming pattern - Part I
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 38 - Basics of Beamforming pattern - Part II
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 39 - SISO Beamforming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 40 - MIMO Beamforming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 41 - Structural implementation of MIMO Beamforming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 42 - Different Level of Beamforming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 43 - MIMO Beamforming in Transmitter side
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 44 - MIMO Beamforming in Receiver side - Part I
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 45 - MIMO Beamforming in Receiver side - Part II
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 46 - Mathematical description of MIMO Beamforming (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 47 - Equalizer based detector
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 48 - Parameter to be designed in MIMO Beamforming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 49 - OFDM Data Model
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 50 - OFDM Data model (Continued...)
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 51 - General OFDM
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 52 - OFDM spectrum and CFO
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 53 - MIMO OFDM structure
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 54 - MIMO OFDM decode and beamforming
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 55 - Design parameter estimation - Part 1
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 56 - Design parameter estimation - Part 2
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 57 - Design parameter estimation - Part 3
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 58 - Design parameter estimation - Part 4
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 59 - Design parameter estimation - Part 5
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 60 - MU System
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 61 - CFO and other impairment and their effects
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 62 - Multi User Hybrid beam and impairment and analysis - Part 3
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 63 - Multi User Hybrid beam and Impairment and analysis - Part 4
Link NOC:Signal Processing for mm Wave communication for 5G and beyond Lecture 64 - Multi User Hybrid beam and Impairment and analysis - Part 5
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 1 - DC Power Conversion Systems - Introduction
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 2 - Overview of voltage regulators
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 3 - Switched mode power converter (SMPC)
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 4 - Model Development for MATLAB Simulation
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 5 - Demonstration of MATLAB Simulation
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 6 - Demonstration of MATLAB Simulation (Continued...)
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 7 - Power Stage Design of Basic SMPCs: Summary
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 8 - Fixed Frequency Modulation Techniques
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 9 - Variable Frequency Modulation Techniques
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 10 - Modulation in Discontinuous Conduction Mode (DCM)
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 11 - Synchronizing Simulation and Script files in MATLAB
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 12 - Interactive MATLAB Simulation and Case Studies
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 13 - Converter’s Objectives and Control Implications
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 14 - Feedforward Control in SMPC
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 15 - Single and Multi Loop Feedback Control Methods
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 16 - Feedback Control of Cascaded SMPCs
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 17 - Combined feedback and feedforward control
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 18 - State feedback control
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 19 - Variable Frequency Control - Understanding Opportunities and Challenges
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 20 - Constant On-time Control Methods
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 21 - Constant Off-time Control Methods
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 22 - Hysteresis Control Methods in SMPCs
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 23 - Stability and Performance Comparison using MATLAB Simulation
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 24 - Light Load Control Methods and Interactive MATLAB Simulation
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 25 - Overview of Modeling Techniques
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 26 - State space averaging and model validation
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 27 - Circuit Averaging Techniques and Equivalent Circuit
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 28 - DC Analysis using Equivalent Circuit Model
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 29 - Derivation of Small-Signal Transfer Functions
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 30 - Small-Signal Model Validation using MATLAB and Time Domain Correlation
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 31 - Small-signal Modeling with Closed Current Loop
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 32 - Impedance Analysis and Stability
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 33 - Loop Gain Analysis and Understanding Model Limits using MATLAB
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 34 - PID Control Design and Tuning under VMC with MATLAB Case Studies
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 35 - Shaping Output Impedance of a Buck Converter under VMC
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 36 - Design of VMC Boost Converter and MATLAB Design Case Studies
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 37 - Accurate Small-signal Modelling under CMC and Verification using MATLAB
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 38 - Design CMC in a Buck Converter and MATLAB based Model Validation
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 39 - Design of CMC Boost Converter - Output and State Feedback Approaches
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 40 - Loop Interactions in CMC and Design of Average CMC
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 41 - Dynamics of SMPCs and Overview of Model-based Nonlinear Control
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 42 - Dynamics of LTIs and Vector Field with MATLAB Demonstration
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 43 - Geometric Perspectives of Eigenvalues and Eigenvectors in SMPCs
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 44 - Small-signal and Large-signal Model based Nonlinear Control
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 45 - Introduction to Sliding Mode Control in SMPCs
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 46 - Sliding Mode Control Design in a Buck Converter
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 47 - Boundary Control Techniques and Selection of Switching Surfaces
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 48 - Time Optimal Control and Identifying Physical Limits in SMPCs
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 49 - Linking Switching Boundary and PID Controller Structure in SMPCs
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 50 - Large-Signal Controller Tuning in Buck Converter: Objectives and Derivations
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 51 - Large-Signal Controller Tuning in Boost and Buck-Boost Converters
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 52 - Large-Signal Controller Tuning in Fixed- and Variable-Frequency Control
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 53 - Critical Performance Limits in Dynamic Voltage Scaling and Possible Solutions
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 54 - Nonlinear Control vs. Large-Signal Tuning: Comparative Study using MATLAB
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 55 - Small-Signal vs. Large-Signal Tuning: Comparison using MATLAB Simulation
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 56 - Performance Improvement and Size Reduction using Large-Signal based Control
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 57 - Digital Control in High Frequency SMPCs - Introduction and Motivations
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 58 - Overview of Fixed and Variable Frequency Digital Control Architectures
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 59 - Challenges and Opportunities in Digitally Controlled High Frequency SMPCs
Link NOC:Control and Tuning Methods in Switched Mode Power Converters Lecture 60 - Course Summary, Key Takeaways, Few Emerging Applications and Future Scopes
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 1 - Scattering Matrix Concepts
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 2 - Scattering Matrix Concepts (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 3 - Scattering Matrix Concepts (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 4 - Scattering Matrix Concepts (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 5 - Scattering Matrix Concepts Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 6 - Scattering Matrix Concepts Tutorials (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 7 - Scattering Matrix Concepts Tutorials (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 8 - Instantaneous form of Maxwell’s equations
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 9 - Instantaneous form of Maxwell’s equations (Continued....)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 10 - Instantaneous form of Maxwell’s equations (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 11 - Instantaneous form of Maxwell’s equations (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 12 - Instantaneous form of Maxwell’s equations (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 13 - Instantaneous form of Maxwell’s equations Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 14 - Instantaneous form of Maxwell’s equations Tutorials (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 15 - Harmonic form of Maxwell’s equations
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 16 - Harmonic form of Maxwell’s equations (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 17 - Harmonic form of Maxwell’s equations (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 18 - Harmonic form of Maxwell’s equations Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 19 - Wave Equation and Solution
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 20 - Relation between wavenumbers
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 21 - Radiation from an electric current source (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 22 - Radiation from an electric current source (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 23 - Radiation from an electric current source (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 24 - Wave Equation and Solution Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 25 - Radiation from an electric current source Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 26 - Radiation from a magnetic current source
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 27 - Radiation from a magnetic current source (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 28 - Radiation from a magnetic current source (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 29 - Application of the magnetic current source (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 30 - Radiation from a magnetic current source Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 31 - Radiation from a magnetic current source Tutorials (Continued....)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 32 - Rectangular waveguide - I
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 33 - Rectangular waveguide - I Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 34 - Rectangular waveguide - II
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 35 - Rectangular waveguide - II (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 36 - Rectangular waveguide - II Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 37 - Rectangular waveguide - II Tutorials (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 38 - Rectangular cavity resonator
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 39 - Rectangular cavity resonator Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 40 - Rectangular cavity resonator Tutorials (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 41 - The Reciprocity Theorem, Computation of Amplitudes of Forward and Backward (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 42 - The Reciprocity Theorem, Computation of Amplitudes of Forward and Backward (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 43 - The Reciprocity Theorem, Computation of Amplitudes Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 44 - The Reciprocity Theorem, Computation of Amplitudes Tutorials (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 45 - Analysis of Guided Structures
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 46 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 47 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 48 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 49 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 50 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 51 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 52 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 53 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 54 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 55 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 56 - Analysis of Guided Structures (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 57 - Analysis of Guided Structures Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 58 - Analysis of Guided Structures Tutorials (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 59 - Cylindrical Wave Functions
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 60 - Cylindrical Wave Functions (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 61 - Cylindrical Wave Functions (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 62 - Circular Waveguide
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 63 - Circular Cavity
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 64 - Cylindrical Wave Functions Tutorials
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 65 - Cylindrical Wave Functions Tutorials (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 66 - Application to the Coupling Problem : Aperture-Coupled, Probe-Coupled and Waveguide
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 67 - Application to the Coupling Problem : Aperture-Coupled, Probe-Coupled and Waveguide (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 68 - Application to the Coupling Problem : Aperture-Coupled, Probe-Coupled and Waveguide (Continued...)
Link NOC:Advanced Microwave Guided-Structures and Analysis Lecture 69 - Application to the Coupling Problem : Aperture-Coupled, Probe-Coupled and Waveguide (Continued...)
Link NOC:Cognition and its Computation Lecture 1 - Introduction
Link NOC:Cognition and its Computation Lecture 2 - Historical Origin of Cognition Studies
Link NOC:Cognition and its Computation Lecture 3 - The Cognitive Revolution
Link NOC:Cognition and its Computation Lecture 4 - Anatomical Structures of the Brain
Link NOC:Cognition and its Computation Lecture 5 - Frontal Lobes and Cognition
Link NOC:Cognition and its Computation Lecture 6 - Neuropsychological Testing
Link NOC:Cognition and its Computation Lecture 7 - Eye Tracking and Cognition
Link NOC:Cognition and its Computation Lecture 8 - EEG, fMRI, MEG
Link NOC:Cognition and its Computation Lecture 9 - Single neuron level measurements
Link NOC:Cognition and its Computation Lecture 10 - Single Neuron Imaging and Manipulation of Neural Activity
Link NOC:Cognition and its Computation Lecture 11 - Introduction to Computation
Link NOC:Cognition and its Computation Lecture 12 - Currency of Computation in Neurobiology - Action Potential
Link NOC:Cognition and its Computation Lecture 13 - Synapse and Synaptic Transmission
Link NOC:Cognition and its Computation Lecture 14 - Synaptic Plasticity
Link NOC:Cognition and its Computation Lecture 15 - Short Term Plasticity and STDP
Link NOC:Cognition and its Computation Lecture 16 - Coding by neurons
Link NOC:Cognition and its Computation Lecture 17 - Sensory Circuits: Visual - I
Link NOC:Cognition and its Computation Lecture 18 - Sensory Circuits: Visual - II
Link NOC:Cognition and its Computation Lecture 19 - Sensory Circuits: Auditory - I
Link NOC:Cognition and its Computation Lecture 20 - Sensory Circuits: Auditory - II
Link NOC:Cognition and its Computation Lecture 21 - Sensory Circuits: Somatosensory
Link NOC:Cognition and its Computation Lecture 22 - Sensory Circuits: Olfactory and Gustatory
Link NOC:Cognition and its Computation Lecture 23 - Motor circuits - Sensory-motor
Link NOC:Cognition and its Computation Lecture 24 - Reward Circuits
Link NOC:Cognition and its Computation Lecture 25 - Executive Circuits
Link NOC:Cognition and its Computation Lecture 26 - Types of Attention, Theories Broadbent Triessman
Link NOC:Cognition and its Computation Lecture 27 - Alerting Orientation and Executive Network
Link NOC:Cognition and its Computation Lecture 28 - Disorders of Attention
Link NOC:Cognition and its Computation Lecture 29 - Basics of Perception - Object, Depth and Movement
Link NOC:Cognition and its Computation Lecture 30 - Constancy and Illusions
Link NOC:Cognition and its Computation Lecture 31 - Neurobiology of attention, Working Memory
Link NOC:Cognition and its Computation Lecture 32 - Cholinergic System, Bottom up and Top down
Link NOC:Cognition and its Computation Lecture 33 - Object Recognition
Link NOC:Cognition and its Computation Lecture 34 - Visual Search and Pattern Recognition
Link NOC:Cognition and its Computation Lecture 35 - Auditory Scene Analysis, McGurk Effect
Link NOC:Cognition and its Computation Lecture 36 - Learning Processes
Link NOC:Cognition and its Computation Lecture 37 - Learning Processes (Continued...)
Link NOC:Cognition and its Computation Lecture 38 - Memory
Link NOC:Cognition and its Computation Lecture 39 - Learning Disorders
Link NOC:Cognition and its Computation Lecture 40 - Memory Failure - Forgetting
Link NOC:Cognition and its Computation Lecture 41 - Learning in biological neural networks
Link NOC:Cognition and its Computation Lecture 42 - Examples
Link NOC:Cognition and its Computation Lecture 43 - Different types of Plasticity
Link NOC:Cognition and its Computation Lecture 44 - Developmental Plasticity/Learning/Critical Period
Link NOC:Cognition and its Computation Lecture 45 - Examples of Disorders in Plasticity
Link NOC:Cognition and its Computation Lecture 46 - Introduction to speech and language (Development)
Link NOC:Cognition and its Computation Lecture 47 - Components of Speech, Speech Production
Link NOC:Cognition and its Computation Lecture 48 - Speech Perception
Link NOC:Cognition and its Computation Lecture 49 - Lessons from Animal Communication
Link NOC:Cognition and its Computation Lecture 50 - Language and Thought - Speech Language Disorders
Link NOC:Cognition and its Computation Lecture 51 - Theories of Emotion
Link NOC:Cognition and its Computation Lecture 52 - Neurophysiology of emotions - Limbic System
Link NOC:Cognition and its Computation Lecture 53 - Problem Solving
Link NOC:Cognition and its Computation Lecture 54 - Decision Making
Link NOC:Cognition and its Computation Lecture 55 - Frontal cortex in decision making
Link NOC:Cognition and its Computation Lecture 56 - Topics in current research - I
Link NOC:Cognition and its Computation Lecture 57 - Topics in current research - II
Link NOC:Cognition and its Computation Lecture 58 - Topics in current research - III
Link NOC:Cognition and its Computation Lecture 59 - Topics in current research - IV
Link NOC:Cognition and its Computation Lecture 60 - Topics in current research - V
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 1 - Digital Control in Switched Mode Power Converters - Course Introduction
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 2 - Digital Control of SMPCs - Course Instructions, Guidelines and Resources
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 3 - Examples of Some Commercial Digital Control Solutions
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 4 - Overview of Digital Control Implementation Platforms
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 5 - Introducing Basic Digitization in Power Electronic Converters
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 6 - Recap of Feedback and Feedforward Control Methods in SMPCs
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 7 - Recap of Fixed and Variable Frequency Modulation Techniques
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 8 - Levels of Digitization in Single-loop Feedback Control in SMPCs
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 9 - Levels of Digitization in Multi-loop Feedback Control in SMPCs
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 10 - SMPC Topologies and Power Stage Design for Hardware Demonstrations
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 11 - Basics of Sampling under Fixed and Variable Frequency Modulation
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 12 - Voltage Mode Digital Pulse Width Modulators and Sampling Methods
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 13 - Overview of Digital Pulse Width Modulator Architectures
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 14 - Sampling Methods under Fixed Frequency Current Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 15 - Overview of Fixed Frequency Current Mode Control Architectures
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 16 - Sampling Methods under Constant On/Off - Time Digital Modulation
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 17 - Constant On/Off- Time Mixed-Signal Current Mode Control Architectures
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 18 - Sampling Methods under Digital Hysteresis Control Methods
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 19 - Overview of Digital Hysteresis Control Architectures
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 20 - Summary of Digital Current Mode Control Architectures
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 21 - Recap of Voltage and Current Mode Control Implementation using MATLAB
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 22 - MATLAB Model Development for Basic Digital Control Blocks
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 23 - MATLAB Model Development for Fixed Frequency Digital Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 24 - MATLAB Models for Digital Controllers using Difference Equations
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 25 - MATLAB Model Development for Digital Voltage Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 26 - MATLAB Model Development for Mixed-Signal Current Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 27 - MATLAB Model Development for Fully Digital Current Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 28 - MATLAB Model Development for Constant-On Time Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 29 - MATLAB Model Development for Constant-Off Time Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 30 - MATLAB Model Development for Digital Current Hysteresis Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 31 - Continuous-Time Small-Signal Modeling under Digital Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 32 - Discrete Time Modeling with Closed Current Loop
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 33 - State-Space Modeling and Steps For Deriving Discrete-Time Models
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 34 - Derivation of Discrete-Time Large-Signal Models
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 35 - Validation of Discrete-Time Large-Signal Models using MATLAB - Part I
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 36 - Validation of Discrete-Time Large-Signal Models using MATLAB - Part II
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 37 - Derivation of Discrete-Time Small-Signal Models - I
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 38 - Derivation of Discrete-Time Small-Signal Models - II
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 39 - Discrete-Time Transfer Functions and Closed Loop Block Diagrams
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 40 - Model Accuracy with MATLAB Case Studies - Comparative Study
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 41 - Continuous-Time to Discrete-Time Conversion Methods - A Summary
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 42 - Recap of Frequency Domain Design of Analog VMC and CMC
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 43 - Design under Digital Voltage Mode Control - Frequency Domain Approaches
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 44 - Design under Digital Current Mode Control - Frequency Domain Approaches
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 45 - Design Case Study and MATLAB Simulation of Digital Voltage Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 46 - Design Case Study and MATLAB Simulation of Digital Current Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 47 - Time Optimal Control of a Buck Converter and Identifying Performance Limits
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 48 - Trajectory based CMC Design for Proximate Time Optimal Recovery
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 49 - Trajectory based Digital CMC Tuning and MATLAB Case Studies
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 50 - Digital Pulse Skipping Control and MATLAB Simulation Case Studies
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 51 - Selection of ADC and DAC in Digitally Controlled SMPCs
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 52 - High Frequency Current Sensing Techniques in Digitally Controlled SMPCs
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 53 - Current Sensing Techniques in Digitally Controlled High Power Converters
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 54 - Signal Conditioning Circuits and PCB Design for Mixed-Signal Implementation
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 55 - Reference Power Stage Design and Schematic for Buck and Boost Converters - I
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 56 - Reference Power Stage Design and Schematic for Buck and Boost Converters - II
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 57 - Step-by-Step Guidelines for Digital Control Implementation using FPGA
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 58 - Test and Measurement of a Buck Converter using Digital Storage Oscilloscope
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 59 - Functionalities in Mixed Signal Oscilloscope for Validating Digital Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 60 - Power Spectrum Analysis of SMPCs using Mixed-Signal Oscilloscope
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 61 - Introduction to Verilog Hardware Description Language (HDL)
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 62 - Guidelines for Verilog HDL Programming - Some Key Rules
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 63 - Structural and Dataflow Modeling in Verilog HDL for Combinational Logics
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 64 - Behavioral Modeling in Verilog HDL for Sequential Digital Circuits
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 65 - Simulation of Verilog-HDL based Design using Xilinx Webpack - I
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 66 - Simulation of Verilog-HDL based Design using Xilinx Webpack - II
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 67 - Fixed Point Implementation in Embedded Control System
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 68 - Fixed Point Arithmetic and Concept of Q Format
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 69 - Counter-based DPWM with Deadtime and Verilog HDL Programming
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 70 - Simulating Counter-based DPWM with Deadtime using Xilinx ISE Simulator
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 71 - Top Down Design Methodology in Digital Voltage Mode Control - I
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 72 - Top Down Design Methodology in Digital Voltage Mode Control - II
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 73 - Digital PID Control Implementation using Verilog HDL Programming
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 74 - Digital PID Controller - Hardware Implementation and Experimental Results
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 75 - Top Down Design Methodology in Mixed-Signal Current Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 76 - Top Down Design Method and Verilog HDL Programming of Mixed-Signal CMC
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 77 - Verilog HDL based Digital PI Control Implementation of Mixed-Signal CMC
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 78 - Hardware Implementation of Mixed-Signal CMC and Experimental Results
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 79 - Voltage based Digital Pulse Skip Modulation and Top Down Design Method
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 80 - Implementing Digital Pulse Skip Modulation and Experimental Results
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 81 - STM32 Overview and STM32G4x ecosystem
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 82 - Getting started with STM32CubeMX - Part I
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 83 - Getting started with STM32CubeMX - Part II
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 84 - Practical implementation of LLC converters - Part I
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 85 - Practical implementation of LLC converters - Part II
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 86 - Texas Instruments C2000 Real-time Microcontroller Devices
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 87 - Getting Started with C2000 - Software and Hardware Development
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 88 - Texas Instruments C2000 key peripheral differentiations
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 89 - Texas Instruments TIDM-02008 Reference Design Overview
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 90 - Texas Instruments TIDM-02008 Reference Design Software Overview
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 91 - Steps for FPGA Implementation of Digital Voltage Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 92 - Steps for FPGA Implementation of Mixed-Signal Current Mode Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 93 - Instability in Digital CMC and Ramp Compensation with Experimental Results
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 94 - Benefits of Constant Off-Time and On-Time Digital CMC Techniques
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 95 - Top Down Design Methodology of Constant On/Off-Time Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 96 - Verilog HDL Implementation of Voltage based Constant On-Time Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 97 - FPGA Implementation of Constant On/Off-Time Mixed-Signal CMC
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 98 - Stability Comparison of Fixed and Variable Freq. Digital CMC with Experimental Results
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 99 - Assessment of Digital Control Techniques for Light Load DC-DC Converters
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 100 - Adaptive On-Time Digital Control in DCM with Verilog HDL Implementation
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 101 - MATLAB Simulation of a Practical Digital VMC Buck Converter in CCM
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 102 - Data Acquisition and Steps for Validating Simulation and Experimental Results
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 103 - Loop Shaping and Design of Digital Voltage Mode Control in a Buck Converter
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 104 - Digital VMC Design for Shaping Output Impedance in a Buck Converter
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 105 - Hardware Case Studies and Transient Performance in Digital VMC Buck Converter
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 106 - Design and Simulation Case Studies in a Mixed-Signal CMC Buck Converter
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 107 - Hardware Case Studies and Transient Performance in a Digital CMC Buck Converter
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 108 - Analysis of Output Impedance in Digital CMC with Load Current Feedforward
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 109 - Load Current Feedforward in Digital CMC Buck Converter: Experimental Results
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 110 - Need for Multi-Mode Digital Control and Design Requirements in SMPCs
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 111 - Implementing Bi-frequency Spread Spectrum in Digital VMC using Verilog HDL
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 112 - Performance of Bi-frequency Spread Spectrum DPWM and Experimental Results
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 113 - Top Down Design Methodology of PWM/PSM Multi-Mode Digital Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 114 - Verilog HDL based FPGA Prototyping of PWM/PSM Multi-Mode Digital Control
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 115 - FPGA Prototyping of Peak Current based PWM/PFM Multi-Mode Digital Control - I
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 116 - FPGA Prototyping of Peak Current based PWM/PFM Multi-Mode Digital Control - II
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 117 - Industry-Driven Architectures for Digital Control IC in High Frequency SMPC
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 118 - Industry-Driven Architectures for Digital Control System Solutions in SMPCs
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 119 - Exploration of Architectures, Modeling, Design, and Control - Course Summary
Link NOC:Digital Control in Switched Mode Power Converters and FPGA-based Prototyping Lecture 120 - Key Takeaways and Course Usefulness for Skilled Manpower Development
Link NOC:VLSI Interconnects Lecture 1 - Introduction to VLSI interconnects
Link NOC:VLSI Interconnects Lecture 2 - The distributed RC interconnect model
Link NOC:VLSI Interconnects Lecture 3 - The Elmore delay
Link NOC:VLSI Interconnects Lecture 4 - Elmore delay in interconnects
Link NOC:VLSI Interconnects Lecture 5 - Elmore delay in branched RC interconnects
Link NOC:VLSI Interconnects Lecture 6 - Equivalent circuit for RC interconnects
Link NOC:VLSI Interconnects Lecture 7 - Scaling effects in interconnects
Link NOC:VLSI Interconnects Lecture 8 - Delay mitigation in RC interconnects
Link NOC:VLSI Interconnects Lecture 9 - RC interconnect simulation
Link NOC:VLSI Interconnects Lecture 10 - Inductive effects in interconnects
Link NOC:VLSI Interconnects Lecture 11 - Distributed RLC interconnect model
Link NOC:VLSI Interconnects Lecture 12 - Transmission line equations
Link NOC:VLSI Interconnects Lecture 13 - When to consider the inductive effects?
Link NOC:VLSI Interconnects Lecture 14 - The transfer function of an RLC interconnect
Link NOC:VLSI Interconnects Lecture 15 - Time domain response of a lumped RLC circuit
Link NOC:VLSI Interconnects Lecture 16 - Equivalent Elmore model for RLC interconnects
Link NOC:VLSI Interconnects Lecture 17 - Two-pole model of RLC interconnects from ABCD parameters
Link NOC:VLSI Interconnects Lecture 18 - RLC interconnect simulation
Link NOC:VLSI Interconnects Lecture 19 - Origin of the skin effect
Link NOC:VLSI Interconnects Lecture 20 - Effective resistance at high frequencies
Link NOC:VLSI Interconnects Lecture 21 - Equivalent circuit to simulate skin effect
Link NOC:VLSI Interconnects Lecture 22 - Power dissipation due to interconnects
Link NOC:VLSI Interconnects Lecture 23 - Optimum interconnect width for minimizing total power dissipation
Link NOC:VLSI Interconnects Lecture 24 - Heating effects and thermal modeling
Link NOC:VLSI Interconnects Lecture 25 - Compact thermal modeling with equivalent electrical circuits
Link NOC:VLSI Interconnects Lecture 26 - Electromigration in interconnects
Link NOC:VLSI Interconnects Lecture 27 - Mitigation of electromigration
Link NOC:VLSI Interconnects Lecture 28 - Capacitive coupling in interconnects
Link NOC:VLSI Interconnects Lecture 29 - Cross-talk and timing jitters in two identical interconnects
Link NOC:VLSI Interconnects Lecture 30 - Coupling effects and mitigation techniques
Link NOC:VLSI Interconnects Lecture 31 - Matrix formulation of coupled interconnects
Link NOC:VLSI Interconnects Lecture 32 - Coupled RLC interconnects
Link NOC:VLSI Interconnects Lecture 33 - Decoupling of interconnects by diagonalization of matrix
Link NOC:VLSI Interconnects Lecture 34 - Analysis of coupled interconnects: Examples - 1
Link NOC:VLSI Interconnects Lecture 35 - Analysis of coupled interconnects: Examples - 2
Link NOC:VLSI Interconnects Lecture 36 - Simulation of RC coupled interconnects
Link NOC:VLSI Interconnects Lecture 37 - Extraction of capacitance - Part 1
Link NOC:VLSI Interconnects Lecture 38 - Extraction of capacitance - Part 2
Link NOC:VLSI Interconnects Lecture 39 - Extraction of inductance - Part 1
Link NOC:VLSI Interconnects Lecture 40 - Extraction of inductance - Part 2
Link NOC:VLSI Interconnects Lecture 41 - Estimation of interconnect parameters from S-parameters
Link NOC:Semiconductor Device Modeling and Simulation Lecture 1 - Introduction
Link NOC:Semiconductor Device Modeling and Simulation Lecture 2 - Introduction (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 3 - Crystal Concept
Link NOC:Semiconductor Device Modeling and Simulation Lecture 4 - Crystal Concept
Link NOC:Semiconductor Device Modeling and Simulation Lecture 5 - Crystal Concept
Link NOC:Semiconductor Device Modeling and Simulation Lecture 6 - Reciprocal Space
Link NOC:Semiconductor Device Modeling and Simulation Lecture 7 - Problem Session - 1
Link NOC:Semiconductor Device Modeling and Simulation Lecture 8 - Doping In Semiconductors
Link NOC:Semiconductor Device Modeling and Simulation Lecture 9 - Bandstructure
Link NOC:Semiconductor Device Modeling and Simulation Lecture 10 - Effective Mass
Link NOC:Semiconductor Device Modeling and Simulation Lecture 11 - Density of States
Link NOC:Semiconductor Device Modeling and Simulation Lecture 12 - Mobility
Link NOC:Semiconductor Device Modeling and Simulation Lecture 13 - Problem Session - 2
Link NOC:Semiconductor Device Modeling and Simulation Lecture 14 - Semiconductor statistics
Link NOC:Semiconductor Device Modeling and Simulation Lecture 15 - Semiconductor statistics (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 16 - P-N Junction
Link NOC:Semiconductor Device Modeling and Simulation Lecture 17 - P-N Junction (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 18 - P-N Junction (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 19 - Problem Session - 3
Link NOC:Semiconductor Device Modeling and Simulation Lecture 20 - BJT
Link NOC:Semiconductor Device Modeling and Simulation Lecture 21 - Bipolar Junction Transistor
Link NOC:Semiconductor Device Modeling and Simulation Lecture 22 - Bipolar Junction Transistor (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 23 - Bipolar Junction Transistor (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 24 - Problem Session - 4
Link NOC:Semiconductor Device Modeling and Simulation Lecture 25 - Metal- Semiconductor Interface
Link NOC:Semiconductor Device Modeling and Simulation Lecture 26 - Schottky junction
Link NOC:Semiconductor Device Modeling and Simulation Lecture 27 - Field Effect Transistor
Link NOC:Semiconductor Device Modeling and Simulation Lecture 28 - MOS Capacitor
Link NOC:Semiconductor Device Modeling and Simulation Lecture 29 - MOS-CV
Link NOC:Semiconductor Device Modeling and Simulation Lecture 30 - REAL MOS (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 31 - MOSFET
Link NOC:Semiconductor Device Modeling and Simulation Lecture 32 - MOSFET (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 33 - Problem Session - 5
Link NOC:Semiconductor Device Modeling and Simulation Lecture 34 - Semiclassical Transport
Link NOC:Semiconductor Device Modeling and Simulation Lecture 35 - Semiclassical Transport (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 36 - Semiclassical Transport (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 37 - Semiclassical Transport (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 38 - Semiclassical Transport (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 39 - Problem Session - 6
Link NOC:Semiconductor Device Modeling and Simulation Lecture 40 - Drift-diffusion model
Link NOC:Semiconductor Device Modeling and Simulation Lecture 41 - Drift-diffusion model (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 42 - Drift-diffusion model (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 43 - Drift-diffusion model (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 44 - Generation-Recombination
Link NOC:Semiconductor Device Modeling and Simulation Lecture 45 - Generation-Recombination (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 46 - Solving DD Equations (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 47 - Solving DD Equations (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 48 - Problem Session - 7
Link NOC:Semiconductor Device Modeling and Simulation Lecture 49 - Hydrodynamic Model
Link NOC:Semiconductor Device Modeling and Simulation Lecture 50 - Hydrodynamic Model (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 51 - Hydrodynamic Model (Continued...)
Link NOC:Semiconductor Device Modeling and Simulation Lecture 52 - Monte Carlo simuations
Link NOC:Semiconductor Device Modeling and Simulation Lecture 53 - Problem Session - 8
Link NOC:Semiconductor Device Modeling and Simulation Lecture 54 - Quantum Mechanics
Link NOC:Semiconductor Device Modeling and Simulation Lecture 55 - Solving Schrodinger Equation
Link NOC:Semiconductor Device Modeling and Simulation Lecture 56 - Quantum Correction Models
Link NOC:Semiconductor Device Modeling and Simulation Lecture 57 - Quantum Transport
Link NOC:Semiconductor Device Modeling and Simulation Lecture 58 - Transfer Matrix Approach
Link NOC:Semiconductor Device Modeling and Simulation Lecture 59 - TCAD Tools
Link NOC:Semiconductor Device Modeling and Simulation Lecture 60 - ATLAS SILVACO
Link NOC:Semiconductor Device Modeling and Simulation Lecture 61 - Simulating Junctions
Link NOC:Semiconductor Device Modeling and Simulation Lecture 62 - Models and Simulation Concepts
Link NOC:Semiconductor Device Modeling and Simulation Lecture 63 - Mixed-mode Simulation
Link NOC:RF and Microwave Networks Lecture 1 - The network concept
Link NOC:RF and Microwave Networks Lecture 2 - One-port network
Link NOC:RF and Microwave Networks Lecture 3 - One-port network, Two-port network
Link NOC:RF and Microwave Networks Lecture 4 - Two-port network, Signal flow graph
Link NOC:RF and Microwave Networks Lecture 5 - Tutorial - 1
Link NOC:RF and Microwave Networks Lecture 6 - General analysis of cylindrical waveguides
Link NOC:RF and Microwave Networks Lecture 7 - TE to z mode analysis of cylindrical waveguides
Link NOC:RF and Microwave Networks Lecture 8 - TE to z mode analysis of cylindrical waveguides (Continued...), TM to z mode analysis
Link NOC:RF and Microwave Networks Lecture 9 - Normalization of mode vectors, Characteristics of eigen values and eigen functions
Link NOC:RF and Microwave Networks Lecture 10 - Wave impedance for TE and TM to z modes, Transmission line analogy for mode voltage
Link NOC:RF and Microwave Networks Lecture 11 - Transmission line equivalence for TE and TM modes, Power calculation using
Link NOC:RF and Microwave Networks Lecture 12 - Tutorial - 2
Link NOC:RF and Microwave Networks Lecture 13 - Modal expansion in cylindrical waveguides, Concept of mode orthogonality
Link NOC:RF and Microwave Networks Lecture 14 - Concept of mode orthogonality (continued), Determination of arbitrary mode
Link NOC:RF and Microwave Networks Lecture 15 - Power orthogonality in cylindrical waveguides
Link NOC:RF and Microwave Networks Lecture 16 - Tutorial - 3
Link NOC:RF and Microwave Networks Lecture 17 - Modal expansion of fields in rectangular waveguides
Link NOC:RF and Microwave Networks Lecture 18 - Modal expansion of fields in rectangular waveguides (Continued), Capacitive rectangular
Link NOC:RF and Microwave Networks Lecture 19 - Capacitive rectangular waveguide junction (Continued...)
Link NOC:RF and Microwave Networks Lecture 20 - Inductive rectangular waveguide junction (Continued...)
Link NOC:RF and Microwave Networks Lecture 21 - Inductive rectangular waveguide junction (Continued...), Construction of solutions
Link NOC:RF and Microwave Networks Lecture 22 - Cylindrical waveguide junctions (Continued...)
Link NOC:RF and Microwave Networks Lecture 23 - Cylindrical waveguide junctions (Continued...)
Link NOC:RF and Microwave Networks Lecture 24 - Cylindrical waveguide junctions (Continued...), Example of capacitive rectangular
Link NOC:RF and Microwave Networks Lecture 25 - Cylindrical waveguide junctions (Continued...), Example of capacitive rectangular
Link NOC:RF and Microwave Networks Lecture 26 - Example of inductive waveguide junction (Continued...), Alternative equivalent circuit
Link NOC:RF and Microwave Networks Lecture 27 - Tutorial - 4
Link NOC:RF and Microwave Networks Lecture 28 - Obstacles in waveguides
Link NOC:RF and Microwave Networks Lecture 29 - Obstacles in waveguides (Continued...)
Link NOC:RF and Microwave Networks Lecture 30 - Obstacles in waveguides (Continued...)
Link NOC:RF and Microwave Networks Lecture 31 - Small obstacles in waveguides
Link NOC:RF and Microwave Networks Lecture 32 - Small obstacles in waveguides (Continued...)
Link NOC:RF and Microwave Networks Lecture 33 - Small obstacles in waveguides, Reciprocity
Link NOC:RF and Microwave Networks Lecture 34 - Reciprocity
Link NOC:RF and Microwave Networks Lecture 35 - Reciprocity (Continued...)
Link NOC:RF and Microwave Networks Lecture 36 - Tutorial - 5
Link NOC:RF and Microwave Networks Lecture 37 - Posts in rectangular waveguide
Link NOC:RF and Microwave Networks Lecture 38 - Posts in rectangular waveguide (Continued...)
Link NOC:RF and Microwave Networks Lecture 39 - Posts in rectangular waveguide (Continued...)
Link NOC:RF and Microwave Networks Lecture 40 - Posts in rectangular waveguide (Continued...)
Link NOC:RF and Microwave Networks Lecture 41 - Diaphragms in waveguide
Link NOC:RF and Microwave Networks Lecture 42 - Diaphragms in waveguide (Continued...)
Link NOC:RF and Microwave Networks Lecture 43 - Diaphragms in waveguide (Continued...)
Link NOC:RF and Microwave Networks Lecture 44 - Diaphragms in waveguide (Continued...)
Link NOC:RF and Microwave Networks Lecture 45 - Tutorial - 6
Link NOC:RF and Microwave Networks Lecture 46 - Currents in Waveguides
Link NOC:RF and Microwave Networks Lecture 47 - Currents in Waveguides (Continued...)
Link NOC:RF and Microwave Networks Lecture 48 - Coaxial to waveguide junction with matched termination
Link NOC:RF and Microwave Networks Lecture 49 - Coaxial to waveguide feeds with arbitrary termination
Link NOC:RF and Microwave Networks Lecture 50 - Coaxial to waveguide feeds with arbitrary termination (Continued...)
Link NOC:RF and Microwave Networks Lecture 51 - Coaxial to waveguide feeds with arbitrary termination (Continued...)
Link NOC:RF and Microwave Networks Lecture 52 - Coaxial to waveguide feeds with arbitrary termination (Continued...)
Link NOC:RF and Microwave Networks Lecture 53 - Tutorial - 7
Link NOC:RF and Microwave Networks Lecture 54 - Apertures in the ground plane
Link NOC:RF and Microwave Networks Lecture 55 - Apertures in the ground plane (Continued...)
Link NOC:RF and Microwave Networks Lecture 56 - Apertures in the ground plane (Continued...)
Link NOC:RF and Microwave Networks Lecture 57 - Apertures in the ground plane (Continued...), Plane current sheets
Link NOC:RF and Microwave Networks Lecture 58 - Plane current sheets (Continued...)
Link NOC:RF and Microwave Networks Lecture 59 - Tutorial - 8
Link NOC:RF and Microwave Networks Lecture 60 - Excitation of Apertures
Link NOC:RF and Microwave Networks Lecture 61 - Tutorial - 9
Link NOC:RF and Microwave Networks Lecture 62 - Modal expansion in cavities
Link NOC:RF and Microwave Networks Lecture 63 - Probes in cavities
Link NOC:RF and Microwave Networks Lecture 64 - Tutorial - 10
Link NOC:RF and Microwave Networks Lecture 65 - Aperture coupling to cavities
Link NOC:RF and Microwave Networks Lecture 66 - Aperture coupling to cavities (Continued...)
Link NOC:RF and Microwave Networks Lecture 67 - Wave interaction with cylindrical structures
Link NOC:RF and Microwave Networks Lecture 68 - Wave interaction with cylindrical structures (Continued...)
Link NOC:RF and Microwave Networks Lecture 69 - Wave interaction with cylindrical structures (Continued...)
Link NOC:RF and Microwave Networks Lecture 70 - Wave interaction with cylindrical structures (Continued...)
Link NOC:RF and Microwave Networks Lecture 71 - Wave interaction with cylindrical structures (Continued...)
Link NOC:RF and Microwave Networks Lecture 72 - Wave interaction with cylindrical structures (Continued...)
Link NOC:RF and Microwave Networks Lecture 73 - Wave interaction with cylindrical structures (Continued...)
Link NOC:RF and Microwave Networks Lecture 74 - Wave interaction with cylindrical structures (Continued...)
Link NOC:RF and Microwave Networks Lecture 75 - Tutorial - 12
Link NOC:Introduction to Adaptive Signal Processing Lecture 1 - Introduction to Adaptive Filters
Link NOC:Introduction to Adaptive Signal Processing Lecture 2 - Probability and Random Variables
Link NOC:Introduction to Adaptive Signal Processing Lecture 3 - General Set of Random Variables
Link NOC:Introduction to Adaptive Signal Processing Lecture 4 - Statistical Impedance, Covariance Matrices
Link NOC:Introduction to Adaptive Signal Processing Lecture 5 - Multivariate Gaussian Density
Link NOC:Introduction to Adaptive Signal Processing Lecture 6 - Complex Random Variables
Link NOC:Introduction to Adaptive Signal Processing Lecture 7 - Introduction to Hermitian Matrices
Link NOC:Introduction to Adaptive Signal Processing Lecture 8 - Eigenvalues and eigenvectors of Hermitian Matrices
Link NOC:Introduction to Adaptive Signal Processing Lecture 9 - Spectral Decomposition of Hermitian Matrices
Link NOC:Introduction to Adaptive Signal Processing Lecture 10 - Positive Definite and Semidefinite Matrices
Link NOC:Introduction to Adaptive Signal Processing Lecture 11 - Introduction to Discrete Time Random Processes
Link NOC:Introduction to Adaptive Signal Processing Lecture 12 - Power Spectral Density (PSD)
Link NOC:Introduction to Adaptive Signal Processing Lecture 13 - PSD and Linear Time Invariant Systems
Link NOC:Introduction to Adaptive Signal Processing Lecture 14 - Optimal FIR Filter
Link NOC:Introduction to Adaptive Signal Processing Lecture 15 - Optimal FIR Filter (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 16 - LMS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 17 - Convergence Proof of LMS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 18 - Convergence Proof of LMS Algorithm (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 19 - Application of Adaptive Filter
Link NOC:Introduction to Adaptive Signal Processing Lecture 20 - Application of Adaptive Filter (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 21 - Application of Adaptive Filter (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 22 - Applications of Adaptive Filter
Link NOC:Introduction to Adaptive Signal Processing Lecture 23 - Applications of Adaptive Filter
Link NOC:Introduction to Adaptive Signal Processing Lecture 24 - Second Order Analysis of LMS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 25 - Second Order Analysis of LMS Algorithm (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 26 - Second Order Analysis of LMS Algorithm (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 27 - Second Order Analysis of LMS Algorithm (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 28 - NLMS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 29 - NLMS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 30 - Affine Projection Algorithm (APA)
Link NOC:Introduction to Adaptive Signal Processing Lecture 31 - Affine Projection Algorithm (APA)
Link NOC:Introduction to Adaptive Signal Processing Lecture 32 - Introduction to RLS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 33 - Introduction to RLS Algorithm (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 34 - Introduction to RLS Algorithm (Continued...)
Link NOC:Introduction to Adaptive Signal Processing Lecture 35 - Formulation of the RLS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 36 - Introduction to RLS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 37 - Introduction to RLS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 38 - Formulation of the RLS Algorithm
Link NOC:Introduction to Adaptive Signal Processing Lecture 39 - Derivation of the RLS transversal adaptive filter
Link NOC:Introduction to Adaptive Signal Processing Lecture 40 - Derivation of the RLS transversal adaptive filter
Link NOC:Introduction to Adaptive Signal Processing Lecture 41 - Derivation of the RLS transversal adaptive filter
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 1 - What is Nano Bio Photonics?
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 2 - Why is Nano Bio Photonics?
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 3 - Why do this?
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 4 - Why Photonics?
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 5 - Why Biology?
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 6 - Nature of Light
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 7 - Light-Matter Interactions
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 8 - Introduction to Fluorescence
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 9 - The Cell
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 10 - The Central Dogma
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 11 - Facts of Matter
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 12 - Introduction to Nanotechnology
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 13 - Nanotechnology: The art of small
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 14 - Synthesis of Nanomaterials : Top-Down Approach
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 15 - Applications of Nanomaterials in Photonics
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 16 - Interaction of Light with Cells
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 17 - Light-matter interactions in molecules (Basic of Spectroscopy)
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 18 - Imaging for Biological Matters
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 19 - Fluorophores and Fluorescence Microscopy Techniques
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 20 - Primary Examples
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 21 - Basics of Flow Cytometry - Part 1
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 22 - Basics of Flow Cytometry - Part 2
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 23 - Data manipulation and presentation
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 24 - Application of Flow cytometry in Biology
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 25 - Raman Assisted Flow cytometry
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 26 - Genetic Code
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 27 - Biosensing Background
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 28 - Basics of Microarray Technology
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 29 - DNA Microarray Technology
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 30 - Protein Microarray Technology
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 31 - Laser Principles and Operation
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 32 - Nonlinear Optical Processes
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 33 - In Vivo Photoexcitation
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 34 - Light/Laser Activated Therapy
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 35 - Laser Tissue Contouring
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 36 - Metamaterials
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 37 - Metamaterials as Biosensors
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 38 - Biosensing with Optical Nano-Antennas
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 39 - Nanoscale Chemical Imaging
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 40 - Optical Tweezers
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 41 - Introduction to Optogenetics
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 42 - Controlling the Brain with Light
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 43 - The Nervous System
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 44 - The Neural Circuits
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 45 - Optical Neuroimaging and Tomography
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 46 - Functional Near-Infrared Spectroscopy (fNIRS) of the Brain
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 47 - Neuro imaging with Light-Sheet Microscopy
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 48 - Brain imaging with Two Photon Microscopy
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 49 - Brain imaging with functional optoacoustic Imaging
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 50 - Tomographic technique for Brain imaging
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 51 - Optogenetic Modulation of Neural Circuits
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 52 - Nanoparticles for Optical Modulation of Neuronal Behavior
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 53 - Optical Stimulation of Neural Circuits in Freely Moving Animals
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 54 - Higher Harmonic Generation Imaging for Neuropathology
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 55 - Multi-Photon Nanosurgery
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 56 - Bioinspired materials for photonics
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 57 - Bioderived Materials
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 58 - Bioinspired Materials
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 59 - Biotemplates
Link NOC:Nanobiophotonics: Touching Our Daily Life Lecture 60 - Summary and Revisiting Few Topics
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 1 - Introduction to Electromagnetic Environment
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 2 - Introduction to Electromagnetic Compatibility
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 3 - EMC Standards
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 4 - EMC Units and Signal Spectrum
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 5 - Single Sided Spectrum
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 6 - Response of Linear Systems to Periodic Input Signals
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 7 - Important Computational Techniques
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 8 - Fourier Coefficient for Piecewise Linear Periodic Waveforms
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 9 - Fourier Coefficient for Piecewise Linear Periodic Waveforms (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 10 - Trapezoidal Clock
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 11 - Spectral Bounds for Trapezoidal Clock
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 12 - Spectral estimation of trapezoidal clock
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 13 - Effect of Rise/Fall Time on Spectral Bound of a Clock
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 14 - Effect of Ringing on Spectral Bounds
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 15 - Spectral Bounds for Linear System Output
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 16 - Resolution Bandwidth of a Spectrum Analyser
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 17 - Detector of Spectrum Analyser
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 18 - Radiated Emission Model Subproblem - I
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 19 - Farfield Characteristics of Current Element: Some Discussion
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 20 - Farfield of Dipole Antena
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 21 - Farfield models of wire antenna and current models
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 22 - Differential mode current emission model
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 23 - Differential mode current emission model (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 24 - Common Mode Current Emission Model
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 25 - Current Measurement
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 26 - Radiated Susceptibility Models
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 27 - Determination of Per Unit Length Inductance (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 28 - Per Unit Length Parameters of Various Two Wire Lines
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 29 - Radiated Susceptibility Model
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 30 - Radiated Susceptibility Model (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 31 - Radiated Susceptibility Model (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 32 - Crosstalk
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 33 - Development of Multi Conductor Transmission Line Equation
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 34 - Per Unit Length Parameter of a Three Conductor System
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 35 - Parameters of Three Conductor Systems (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 36 - Parameters of Three Conductor Systems (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 37 - Development of crosstalk model infrequency domain
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 38 - Determination of Terminal Currents of a three conductor system
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 39 - Derivation of Chain Parameter Matrix
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 40 - Determination of Crosstalk in a Lossless Line Immersed in Homogeneous Medium
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 41 - Determination of Crosstalk (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 42 - Determination of Crosstalk (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 43 - Determination of Crosstalk (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 44 - Inductive and Capacitive coupling
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 45 - Time Domain Crosstalk
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 46 - Time Domain Crosstalk (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 47 - Inclusion of Losses in Transient Crosstalk
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 48 - Conducted emission and susceptibility
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 49 - Shielding
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 50 - Shielding Effectiveness for Farfield Source
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 51 - Shielding Effectiveness Due to Farfield Source (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 52 - SE Due to Farfield Sources (Continued...) and Free Space Impedance Ar Nearfield
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 53 - Shielding for Nearfield Source
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 54 - EMC System Aspect for Shielding
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 55 - Grounding
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 56 - Grounding (Continued...)
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 57 - Bonds and Joints
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 58 - EMC Case Studies
Link NOC:EMI-EMC and Signal Integrity: Principles, Techniques and Applications Lecture 59 - Electrostatic Discharge (ESD)
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 1 - Introduction
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 2 - Real-life Examples Illustration
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 3 - Sensor Structure and Characteristics
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 4 - Sensor and Actuator Characteristics and Numerical Problem
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 5 - Temperature Sensors and its Signal Conditioning Circuits
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 6 - Motion Sensors and its Interfacing Aspects
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 7 - Gyroscope and Strain Gauge
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 8 - Strain Gauge and Optical Sensor
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 9 - Optical Encoder, Gas Sensor and Chemical Sensor
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 10 - Magnetic Sensor and Actuator
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 11 - Electrical Actuator
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 12 - Electrical Actuator: Stepper Motor and Heater
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 13 - Smart Material Actuator
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 14 - Metamaterial and Other Actuators
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 15 - Op-amp based circuits and amplifier
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 16 - Various Op-amp Configurations
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 17 - Instrumentation Amplifier and Filter
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 18 - Passive and Active Filters
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 19 - Universal Filter and Data Converter
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 20 - ADC and DAC
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 21 - Sampling Issue and Communication Protocol
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 22 - Bridge Circuits and their Linearity Improvement
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 23 - Linearization and error reduction schemes
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 24 - Principle of Direct Interfacing Scheme
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 25 - Various Aspects of Direct Interfacing
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 26 - Direct Interfacing for Differential and Bridge Type Resistive Sensor
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 27 - Measurement Uncertainties and Interface of Sensor Array
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 28 - Various Configurations of Capacitive Sensors
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 29 - Analog Interface Circuit and Direct Interfacing Scheme
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 30 - Direct Interfacing Scheme for Differential Capacitive Sensor
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 31 - Lossy Capacitive Sensor and its Interfacing Aspect
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 32 - Advanced Interfacing Circuits for Lossy Capacitive Sensor
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 33 - Autobalance Active Bridge Interfacing Circuit
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 34 - Background of Miniaturization
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 35 - Micromachining Technology for MEMS Devices
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 36 - Bulk and Surface Micromachining and Fabrication Steps
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 37 - MEMS Fabrication Process - Part 1
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 38 - MEMS Fabrication Process - Part 2
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 39 - MEMS Fabrication Process - Part 3
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 40 - MEMS Fabrication Process - Part 4
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 41 - MEMS-IC Integration Aspects and Miniaturized Sensor
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 42 - MEMS Pressure Sensor and Interfacing Electronics
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 43 - MEMS Accelerometer
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 44 - MEMS Capacitive Accelerometer and Interfacing Electronics
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 45 - Interfacing Electronics Details for MEMS Accelerometer
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 46 - MEMS Gyroscope and Flow sensor
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 47 - MEMS Actuator
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 48 - MEMS Electrostatic Actuator Analysis
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 49 - Background of Renewable Energy Harvesting
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 50 - Various Transduction Mechanisms for Energy Harvester
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 51 - Vibration Energy Harvester and its Interfacing Aspects
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 52 - Interfacing Power Management Circuit for Vibration Energy Harvester
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 53 - Demonstration of Energy Harvester Set-up and Self-powered Embedded System
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 54 - Background of Embedded Sensors and Actuators in Automotives
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 55 - Applications in Safety System of Automotive
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 56 - Applications in Safety System and Engine Control System
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 57 - Application in Cardiovascular Measurements
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 58 - Applications in Remote Healthcare and Smart Medical Devices
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 59 - Electronic Nose and its Applications in Disease Detection
Link NOC:Embedded Sensing, Actuation and Interfacing Systems Lecture 60 - Virtual Sensing, Research Scopes, Summary and Key Takeaways of the Course
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 1 - Electric systems
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 2 - Resistive circuit connections
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 3 - Nodal analysis
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 4 - Mesh Analysis / Loop Analysis
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 5 - Mixed sources - Meshand Nodal analysis
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 6 - Superposition Theorem
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 7 - Thevenin's Theorem and its applications
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 8 - Norton's theorem and Maximum power transfer theorem
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 9 - Review problems on DC circuits
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 10 - Average and RMS values Phasor representation of sinusoids Reactance
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 11 - Series AC circuits, R-L, R-C, R-L-C
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 12 - KVL and KCL Series and parallel combination of impedance Star - delta transformations
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 13 - Power Curves for AC circuits
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 14 - Real and Reactive Power
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 15 - Loop current method, nodal analysis and theorems
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 16 - Theorem-examples, maximum power transfer theorem
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 17 - Resonance
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 18 - Power Factor Improvement
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 19 - Review problems on AC circuits
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 20 - Capacitor - properties series - parallel combinations
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 21 - Inductor - properties series - parallel combinations
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 22 - Source free RC and RL circuits
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 23 - Step response of RC and RL circuits
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 24 - Review Problems on RL and RC transients
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 25 - Basics on three phase systems
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 26 - Line and phase currents and voltages in star connected systems
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 27 - Line and phase voltages and currents in delta connected systems
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 28 - Three phase power
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 29 - Three phase power and Power factor
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 30 - Measurement of 3 - phase power
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 31 - Magnetic flux, flux density, magnetic field strength
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 32 - Reluctance Equivalent magnetic circuit Solving Magnetic Circuits
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 33 - Solving Magnetic Circuits
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 34 - Hysteresis loop Hysteresis and Eddy Current loss
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 35 - Self and Mutual inductances Dot Convention
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 36 - Solving Magnetic Coupled Circuits
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 37 - Magnetic Circuit applications
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 38 - Transformer Basics, The emf equation
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 39 - Ideal transformer, Impedance referred to primary
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 40 - Practical transformer, Transformer equivalent circuit diagram
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 41 - Voltage Drop and Voltage Regulation Calculation
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 42 - Efficiency of Transformer
Link NOC:A Basic Course on Electric and Magnetic Circuits Lecture 43 - Transformer Tests, Transformer Applications
Link Modelling and Analysis of Electric Machines Lecture 1 - Introduction
Link Modelling and Analysis of Electric Machines Lecture 2 - Magnetic Fields
Link Modelling and Analysis of Electric Machines Lecture 3 - Magnetic Circuit
Link Modelling and Analysis of Electric Machines Lecture 4 - Singly Excited Linear Motion System
Link Modelling and Analysis of Electric Machines Lecture 5 - Linear and Cylindrical Motion Systems
Link Modelling and Analysis of Electric Machines Lecture 6 - Systems with Multiple Excitations
Link Modelling and Analysis of Electric Machines Lecture 7 - Non-linear Magnetic Systems
Link Modelling and Analysis of Electric Machines Lecture 8 - Inductances in Constant Air gap Machines
Link Modelling and Analysis of Electric Machines Lecture 9 - Inductance in Salient Pole Machine - I
Link Modelling and Analysis of Electric Machines Lecture 10 - Inductance in Salient Pole Machine - II
Link Modelling and Analysis of Electric Machines Lecture 11 - Inductance in Salient Pole Machine - III
Link Modelling and Analysis of Electric Machines Lecture 12 - Inductance in Salient Pole Machine - IV
Link Modelling and Analysis of Electric Machines Lecture 13 - Inductance in Salient Pole Machine - V
Link Modelling and Analysis of Electric Machines Lecture 14 - Inductances of Distributed Winding - I
Link Modelling and Analysis of Electric Machines Lecture 15 - Inductances of Distributed Winding - II
Link Modelling and Analysis of Electric Machines Lecture 16 - Inductances of Distributed Winding - III
Link Modelling and Analysis of Electric Machines Lecture 17 - Dynamic Equations of Induction Machines
Link Modelling and Analysis of Electric Machines Lecture 18 - Dynamic Equations of Salient Pole Synchronous Machine
Link Modelling and Analysis of Electric Machines Lecture 19 - Three-to-Two Phase Transformation
Link Modelling and Analysis of Electric Machines Lecture 20 - Induction Machine in Two-Phase Reference Frame
Link Modelling and Analysis of Electric Machines Lecture 21 - The Pseudo-Stationary Reference Frame
Link Modelling and Analysis of Electric Machines Lecture 22 - Induction Machine in Pseudo-Stationary Reference Frame
Link Modelling and Analysis of Electric Machines Lecture 23 - The Primitive Machine Equations
Link Modelling and Analysis of Electric Machines Lecture 24 - Dynamic Equations of DC Machines
Link Modelling and Analysis of Electric Machines Lecture 25 - Small Signal Model of DC Machine
Link Modelling and Analysis of Electric Machines Lecture 26 - Small Signal Behaviour of DC Machine
Link Modelling and Analysis of Electric Machines Lecture 27 - The Arbitrary Reference Frame
Link Modelling and Analysis of Electric Machines Lecture 28 - Induction Machine Equations in Arbitrary, Synchronous Reference Frames and Small Signal Modelling
Link Modelling and Analysis of Electric Machines Lecture 29 - Introduction to Field Oriented Control of Induction Machines
Link Modelling and Analysis of Electric Machines Lecture 30 - Space Vector Formulation of Induction Machine Equations
Link Modelling and Analysis of Electric Machines Lecture 31 - Modelling of Salient Pole Synchronous Machines - I
Link Modelling and Analysis of Electric Machines Lecture 32 - Modelling of Salient Pole Synchronous Machines - II
Link Modelling and Analysis of Electric Machines Lecture 33 - Modelling of Salient Pole Synchronous Machines - III
Link Modelling and Analysis of Electric Machines Lecture 34 - Steady State Models - Induction Machine
Link Modelling and Analysis of Electric Machines Lecture 35 - Steady State Models - Salient Pole Synchronous Machine
Link Modelling and Analysis of Electric Machines Lecture 36 - Solution of Dynamic Equations of Induction Machine - I
Link Modelling and Analysis of Electric Machines Lecture 37 - Solution of Dynamic Equations of Induction Machine - II
Link Modelling and Analysis of Electric Machines Lecture 38 - Reactances of Salient Pole Synchronous Machines - I
Link Modelling and Analysis of Electric Machines Lecture 39 - Reactances of Salient Pole Synchronous Machines - II
Link Modelling and Analysis of Electric Machines Lecture 40 - Reactances of Salient Pole Synchronous Machines - III
Link Modelling and Analysis of Electric Machines Lecture 41 - Suddent Short Circuit of Three Phase Alternator - Analytical Solution
Link Modelling and Analysis of Electric Machines Lecture 42 - Suddent Short Circuit of Three Phase Alternator - Numerical Simulation
Link Modelling and Analysis of Electric Machines Lecture 43 - Course Recapitulation and Assignments
Link Analog ICs Lecture 1 - Basic Building Blocks In Analog ICs
Link Analog ICs Lecture 2 - Current Mirrors
Link Analog ICs Lecture 3 - Translinear Networks
Link Analog ICs Lecture 4 - Differential Amplifier
Link Analog ICs Lecture 5 - Differential Amplifier Characteristics
Link Analog ICs Lecture 6 - Video Amplifier and RF/IF Amplifiers
Link Analog ICs Lecture 7 - Cascade Amplifier
Link Analog ICs Lecture 8 - IC Negative Feedback Wide Band Amplifiers
Link Analog ICs Lecture 9 - IC Negative Feedback Amplifiers
Link Analog ICs Lecture 10 - Voltage Sources And References
Link Analog ICs Lecture 11 - IC Voltage Regulator
Link Analog ICs Lecture 12 - Characteristics and Parameters Of Voltage
Link Analog ICs Lecture 13 - Protection Circuitry For Voltage Regulator
Link Analog ICs Lecture 14 - Switched Mode Regulator And Operational
Link Analog ICs Lecture 15 - IC Operational Voltage Amplifier
Link Analog ICs Lecture 16 - General Purpose Operational Amplifier-747
Link Analog ICs Lecture 17 - Transconductance Operational Amplifier
Link Analog ICs Lecture 18 - Audio Power Amplifier and Norton's Amplifier
Link Analog ICs Lecture 19 - Analog Multipliers
Link Analog ICs Lecture 20 - Analog Multipliers
Link Analog ICs Lecture 21 - Voltage Controlled Oscillator
Link Analog ICs Lecture 22 - Voltage Controlled Oscillator
Link Analog ICs Lecture 23 - Self Tuned Filter
Link Analog ICs Lecture 24 - Phase Locked Loop24 Phase Locked Loop
Link Analog ICs Lecture 25 - Phase Locked Loop
Link Analog ICs Lecture 26 - Phase Locked Loop
Link Analog ICs Lecture 27 - Phase Locked Loop
Link Analog ICs Lecture 28 - Current Mode ICs
Link Digital Integrated Circuits Lecture 1 - Semiconductors
Link Digital Integrated Circuits Lecture 2 - Modelling of PN Junction Diodes
Link Digital Integrated Circuits Lecture 3 - Modelling of BJTs
Link Digital Integrated Circuits Lecture 4 - Diode and BJT Model Parameter Extraction
Link Digital Integrated Circuits Lecture 5 - BJT Inverters DC and Switching Characteristics
Link Digital Integrated Circuits Lecture 6 - Schottky Transistor
Link Digital Integrated Circuits Lecture 7 - Specifications of Logic Circuits
Link Digital Integrated Circuits Lecture 8 - Qualitative discussion on TTL Circuits
Link Digital Integrated Circuits Lecture 9 - Standard TTL Circuits
Link Digital Integrated Circuits Lecture 10 - Schottky (74s..) and Low power Schottky (74ls)
Link Digital Integrated Circuits Lecture 11 - Advanced TTL Circuits
Link Digital Integrated Circuits Lecture 12 - I2 L Technology
Link Digital Integrated Circuits Lecture 13 - Edge triggered D-F/F
Link Digital Integrated Circuits Lecture 14 - I2 L - Condition for Proper Operation
Link Digital Integrated Circuits Lecture 15 - I2 L - Propagation delay Self aligned
Link Digital Integrated Circuits Lecture 16 - Schottky Transistor Logic
Link Digital Integrated Circuits Lecture 17 - Stacked I2 L
Link Digital Integrated Circuits Lecture 18 - ECL Basic Operation
Link Digital Integrated Circuits Lecture 19 - Quantitative analysis of ECL 10k Series gates
Link Digital Integrated Circuits Lecture 20 - ECL 100k series; Stacked ECL gates; D-F/F
Link Digital Integrated Circuits Lecture 21 - Emitter Function Logic;Low Power ECL
Link Digital Integrated Circuits Lecture 22 - Polyemitter Bipolar Transistor In ECL;Propagation
Link Digital Integrated Circuits Lecture 23 - Heterojunction Bipolar Transistor Based ECL;ECL
Link Digital Integrated Circuits Lecture 24 - nMOS Logic Circuits
Link Digital Integrated Circuits Lecture 25 - nMOS Logic Circuits(contd); CMOS :Introduction
Link Digital Integrated Circuits Lecture 26 - CMOS Inverter
Link Digital Integrated Circuits Lecture 27 - CMOS NAND,NOR and Other Gates: Clocked CMOS
Link Digital Integrated Circuits Lecture 28 - Dynamic CMOS ;Transmission Gates;Realization Of MUX,decoder, D-F/F
Link Digital Integrated Circuits Lecture 29 - BiCMOS Gates
Link Digital Integrated Circuits Lecture 30 - BiCMOS Driver;BiCMOS 32-bit Adder
Link Digital Integrated Circuits Lecture 31 - Digital Integrated Circuits
Link Digital Integrated Circuits Lecture 32 - Digital Integrated Circuits
Link Digital Integrated Circuits Lecture 33 - CMOS SRAM
Link Digital Integrated Circuits Lecture 34 - BiCMOS SRAM
Link Digital Integrated Circuits Lecture 35 - DRAM-CMOS and BiCMOS
Link Digital Integrated Circuits Lecture 36 - ROM-EPROM,EEPROM and Flash EPROM
Link Digital Integrated Circuits Lecture 37 - GaAs MESFET Characteristics and Equivalent Circuits
Link Digital Integrated Circuits Lecture 38 - Direct Coupled FET Logic; Superbuffer FET Logic
Link Digital Integrated Circuits Lecture 39 - Buffered FET Logic; Schottky Diode FET Logic
Link Digital Integrated Circuits Lecture 40 - Transmission Line Effects
Link Electromagnetic Fields Lecture 1 - Introduction To Vector
Link Electromagnetic Fields Lecture 2 - Introduction To Vector (Continued...)
Link Electromagnetic Fields Lecture 3 - Coulomb's Law
Link Electromagnetic Fields Lecture 4 - Electric Field
Link Electromagnetic Fields Lecture 5 - Electro Static Potential
Link Electromagnetic Fields Lecture 6 - The Gradient
Link Electromagnetic Fields Lecture 7 - Gauss's Law
Link Electromagnetic Fields Lecture 8 - Poisson's Equation
Link Electromagnetic Fields Lecture 9 - Energy In The Field
Link Electromagnetic Fields Lecture 10 - Sample Problems In Electrostatics
Link Electromagnetic Fields Lecture 11 - Fields In Materials
Link Electromagnetic Fields Lecture 12 - Fields In Material Bodies
Link Electromagnetic Fields Lecture 13 - Displacement Vectors
Link Electromagnetic Fields Lecture 14 - Capacitors
Link Electromagnetic Fields Lecture 15 - Method Of Images
Link Electromagnetic Fields Lecture 16 - Poisson's Equation 2 Dimensions
Link Electromagnetic Fields Lecture 17 - Field Near Sharp Edges And Points
Link Electromagnetic Fields Lecture 18 - Magnetic Field 1
Link Electromagnetic Fields Lecture 19 - Magnetic Field 2
Link Electromagnetic Fields Lecture 20 - Stokes Theorems
Link Electromagnetic Fields Lecture 21 - The curl
Link Electromagnetic Fields Lecture 22 - Field due to current loop
Link Electromagnetic Fields Lecture 23 - Ampere's law
Link Electromagnetic Fields Lecture 24 - Examples of Ampere's law
Link Electromagnetic Fields Lecture 25 - Inductance
Link Electromagnetic Fields Lecture 26 - Mutual Inductance
Link Electromagnetic Fields Lecture 27 - Faraday's law
Link Electromagnetic Fields Lecture 28 - Magnetic Energy
Link Electromagnetic Fields Lecture 29 - Magnetic Energy (Continued...)
Link Electromagnetic Fields Lecture 30 - Magnetic Energy (Continued...)
Link Electromagnetic Fields Lecture 31 - Generalised Ampere's Law
Link Electromagnetic Fields Lecture 32 - The Wave Equation
Link Electromagnetic Fields Lecture 33 - The Wave Equation
Link Electromagnetic Fields Lecture 34 - Poynting Theorem
Link Electromagnetic Fields Lecture 35 - Skin Effect
Link Electromagnetic Fields Lecture 36 - Skin Effect (Continued...)
Link Electromagnetic Fields Lecture 37 - Radiation And Circuits
Link Electromagnetic Fields Lecture 38 - Phasor Form Of Poynting Theorem
Link Electromagnetic Fields Lecture 39 - Reflection At Dielectric Boundaries
Link Electromagnetic Fields Lecture 40 - Reflection At Dielectric Boundaries (Continued...)
Link Electromagnetic Fields Lecture 41 - Transmission Lines
Link Electromagnetic Fields Lecture 42 - Transmission Lines (Continued...) and Conclusion
Link Networks and Systems Lecture 1 - Introductory Concepts - 1
Link Networks and Systems Lecture 2 - Introductory Concepts - 2
Link Networks and Systems Lecture 3 - Introductory Concepts - 3
Link Networks and Systems Lecture 4 - Introductory Concepts - 4
Link Networks and Systems Lecture 5 - Introductory Concepts - 5
Link Networks and Systems Lecture 6 - Introductory Concepts - 6
Link Networks and Systems Lecture 7 - Fourier Series - 1
Link Networks and Systems Lecture 8 - Fourier Series - 2
Link Networks and Systems Lecture 9 - Fourier Series - 3
Link Networks and Systems Lecture 10 - Fourier Series - 4
Link Networks and Systems Lecture 11 - Fourier Series - 5
Link Networks and Systems Lecture 12 - Fourier Series - 6
Link Networks and Systems Lecture 13 - Fourier Transforms - 1
Link Networks and Systems Lecture 14 - Fourier Transforms - 2
Link Networks and Systems Lecture 15 - Fourier Transforms - 3
Link Networks and Systems Lecture 16 - Fourier Transforms - 4
Link Networks and Systems Lecture 17 - Fourier Transforms - 5
Link Networks and Systems Lecture 18 - Fourier Transforms - 6
Link Networks and Systems Lecture 19 - Fourier Transforms - 7
Link Networks and Systems Lecture 20 - Laplace Transforms - 1
Link Networks and Systems Lecture 21 - Laplace Transforms - 2
Link Networks and Systems Lecture 22 - Laplace Transforms - 3
Link Networks and Systems Lecture 23 - Laplace Transforms - 4
Link Networks and Systems Lecture 24 - Laplace Transforms - 5
Link Networks and Systems Lecture 25 - Laplace Transforms - 6
Link Networks and Systems Lecture 26 - Application of Laplace Transforms - 1
Link Networks and Systems Lecture 27 - Application of Laplace Transforms - 2
Link Networks and Systems Lecture 28 - Application of Laplace Transforms - 3
Link Networks and Systems Lecture 29 - Application of Laplace Transforms - 4
Link Networks and Systems Lecture 30 - Network Functions - 1
Link Networks and Systems Lecture 31 - Network Functions - 2
Link Networks and Systems Lecture 32 - Network Functions - 3
Link Networks and Systems Lecture 33 - Network Functions - 4
Link Networks and Systems Lecture 34 - Network Theorems - 1
Link Networks and Systems Lecture 35 - Network Theorems - 2
Link Networks and Systems Lecture 36 - Network Theorems - 3
Link Networks and Systems Lecture 37 - Network Theorems - 4
Link Networks and Systems Lecture 38 - Discrete - Time Systems - 1
Link Networks and Systems Lecture 39 - Discrete - Time Systems - 2
Link Networks and Systems Lecture 40 - Discrete - Time Systems - 3
Link Networks and Systems Lecture 41 - Discrete - Time Systems - 4
Link Networks and Systems Lecture 42 - Discrete - Time Systems - 5
Link Networks and Systems Lecture 43 - Discrete - Time Systems - 6
Link Networks and Systems Lecture 44 - Discrete - Time Systems - 7
Link Networks and Systems Lecture 45 - State-Variable Methods - 1
Link Networks and Systems Lecture 46 - State-Variable Methods - 2
Link Networks and Systems Lecture 47 - State Variable Methods - 3
Link Networks and Systems Lecture 48 - State Variable Methods - 4
Link Networks and Systems Lecture 49 - State Variable Methods - 5
Link Networks and Systems Lecture 50 - State Variable Methods - 6
Link Probability Foundation for Electrical Engineers Lecture 1 - Introduction
Link Probability Foundation for Electrical Engineers Lecture 2 - Cardinality
Link Probability Foundation for Electrical Engineers Lecture 3 - Countability
Link Probability Foundation for Electrical Engineers Lecture 4 - Uncountable sets - 1
Link Probability Foundation for Electrical Engineers Lecture 5 - Uncountable sets - 2
Link Probability Foundation for Electrical Engineers Lecture 6 - Probability spaces - Introduction
Link Probability Foundation for Electrical Engineers Lecture 7 - Probability spaces - Algebra
Link Probability Foundation for Electrical Engineers Lecture 8 - Probability spaces - σ-algebra
Link Probability Foundation for Electrical Engineers Lecture 9 - Probability spaces - Measurable space
Link Probability Foundation for Electrical Engineers Lecture 10 - Properties of probability measures
Link Probability Foundation for Electrical Engineers Lecture 11 - Continuity of probability measure
Link Probability Foundation for Electrical Engineers Lecture 12 - Discrete probability space - finite and countably infinite sample space
Link Probability Foundation for Electrical Engineers Lecture 13 - Discrete probability space - Uncountable sample space
Link Probability Foundation for Electrical Engineers Lecture 14 - Generated σ-algebra, Borel Sets
Link Probability Foundation for Electrical Engineers Lecture 15 - Borel sets
Link Probability Foundation for Electrical Engineers Lecture 16 - Uniform probability measure on Borel sets-Lebesgue measure
Link Probability Foundation for Electrical Engineers Lecture 17 - Carathéodory’s extension theorem
Link Probability Foundation for Electrical Engineers Lecture 18 - Lebesgue measure (Continued...)
Link Probability Foundation for Electrical Engineers Lecture 19 - Infinite coin toss model
Link Probability Foundation for Electrical Engineers Lecture 20 - Infinite coin toss model (Continued...)
Link Probability Foundation for Electrical Engineers Lecture 21 - Conditional probability
Link Probability Foundation for Electrical Engineers Lecture 22 - Properties of conditional probability
Link Probability Foundation for Electrical Engineers Lecture 23 - Independence of events
Link Probability Foundation for Electrical Engineers Lecture 24 - Independence of σ-algebras
Link Probability Foundation for Electrical Engineers Lecture 25 - Borel-Cantelli Lemma - 1
Link Probability Foundation for Electrical Engineers Lecture 26 - Borel-Cantelli Lemma - 2
Link Probability Foundation for Electrical Engineers Lecture 27 - Random Variables
Link Probability Foundation for Electrical Engineers Lecture 28 - Random Variables (Continued...)
Link Probability Foundation for Electrical Engineers Lecture 29 - Cumulative Distribution Function
Link Probability Foundation for Electrical Engineers Lecture 30 - Properties of CDF
Link Probability Foundation for Electrical Engineers Lecture 31 - Types of Random Variables
Link Probability Foundation for Electrical Engineers Lecture 32 - Examples of Random Variables
Link Probability Foundation for Electrical Engineers Lecture 33 - Continuous Random Variables - 1
Link Probability Foundation for Electrical Engineers Lecture 34 - Examples of Continuous Random Variables - 1
Link Probability Foundation for Electrical Engineers Lecture 35 - Continuous Random Variables - 2, Examples of Continuous RandomVariables - 2
Link Probability Foundation for Electrical Engineers Lecture 36 - Singular Random Variables
Link Probability Foundation for Electrical Engineers Lecture 37 - Several Random Variables - 1
Link Probability Foundation for Electrical Engineers Lecture 38 - Several Random Variables - 2
Link Probability Foundation for Electrical Engineers Lecture 39 - Independent Random Variables - 1
Link Probability Foundation for Electrical Engineers Lecture 40 - Independent Random Variables - 2
Link Probability Foundation for Electrical Engineers Lecture 41 - Conditional PMF, Jointly Continuous Random Variables - 1
Link Probability Foundation for Electrical Engineers Lecture 42 - Jointly Continuous Random Variables - 2
Link Probability Foundation for Electrical Engineers Lecture 43 - Jointly Continuous Random Variables - 3
Link Probability Foundation for Electrical Engineers Lecture 44 - Conditional CDF
Link Probability Foundation for Electrical Engineers Lecture 45 - Transformation of Random Variables - 1
Link Probability Foundation for Electrical Engineers Lecture 46 - Transformation of Random Variables - 2; Independent Random Variables
Link Probability Foundation for Electrical Engineers Lecture 47 - Sums of Discrete Random Variables
Link Probability Foundation for Electrical Engineers Lecture 48 - Sums of Jointly Continuous Random Variables
Link Probability Foundation for Electrical Engineers Lecture 49 - Sums of Random Number of Random Variables
Link Probability Foundation for Electrical Engineers Lecture 50 - General Transformations of Random Variables
Link Probability Foundation for Electrical Engineers Lecture 51 - Jacobian Formula
Link Probability Foundation for Electrical Engineers Lecture 52 - Examples Illustrating the use of Jacobian Formula
Link Probability Foundation for Electrical Engineers Lecture 53 - Introduction Integral and Expectation
Link Probability Foundation for Electrical Engineers Lecture 54 - Definition of the Abstract Integral
Link Probability Foundation for Electrical Engineers Lecture 55 - Simple Functions
Link Probability Foundation for Electrical Engineers Lecture 56 - Computing Expectation using Simple Functions, Properties of Integrals
Link Probability Foundation for Electrical Engineers Lecture 57 - Properties of Integrals (Continued....)
Link Probability Foundation for Electrical Engineers Lecture 58 - Inclusion Exclusion Formula using Indicator RVs and Expectation
Link Probability Foundation for Electrical Engineers Lecture 59 - Monotone Convergence Theorem - 1
Link Probability Foundation for Electrical Engineers Lecture 60 - Monotone Convergence Theorem - 2
Link Probability Foundation for Electrical Engineers Lecture 61 - Expectation of a Discrete Random Variable
Link Probability Foundation for Electrical Engineers Lecture 62 - Examples of Expectation of Discrete Random Variables
Link Probability Foundation for Electrical Engineers Lecture 63 - Expectation of Function of Random Variable
Link Probability Foundation for Electrical Engineers Lecture 64 - Some Examples of Computing Expectation
Link Probability Foundation for Electrical Engineers Lecture 65 - Fatou’s Lemma
Link Probability Foundation for Electrical Engineers Lecture 66 - Dominated Convergence Theorem
Link Probability Foundation for Electrical Engineers Lecture 67 - Variance
Link Probability Foundation for Electrical Engineers Lecture 68 - Covariance
Link Probability Foundation for Electrical Engineers Lecture 69 - Covariance Correlation Coefficient - 1
Link Probability Foundation for Electrical Engineers Lecture 70 - Covariance Correlation Coefficient - 2
Link Probability Foundation for Electrical Engineers Lecture 71 - Conditional Expectation
Link Probability Foundation for Electrical Engineers Lecture 72 - Properties of Conditional Expectation
Link Probability Foundation for Electrical Engineers Lecture 73 - MMSE Estimator
Link Probability Foundation for Electrical Engineers Lecture 74 - Transforms
Link Probability Foundation for Electrical Engineers Lecture 75 - Moment Generating Function - 1
Link Probability Foundation for Electrical Engineers Lecture 76 - Moment Generating Function - 2
Link Probability Foundation for Electrical Engineers Lecture 77 - Characteristic Function - 1
Link Probability Foundation for Electrical Engineers Lecture 78 - Characteristic Function - 2
Link Probability Foundation for Electrical Engineers Lecture 79 - Characteristic Function - 3
Link Probability Foundation for Electrical Engineers Lecture 80 - Characteristic Function - 4
Link Probability Foundation for Electrical Engineers Lecture 81 - Concentration Inequalities - 1
Link Probability Foundation for Electrical Engineers Lecture 82 - Concentration Inequalities - 2
Link Probability Foundation for Electrical Engineers Lecture 83 - Convergence of Random Variables - 1
Link Probability Foundation for Electrical Engineers Lecture 84 - Convergence of Random Variables - 2
Link Probability Foundation for Electrical Engineers Lecture 85 - Convergence of Random Variables - 3
Link Probability Foundation for Electrical Engineers Lecture 86 - Convergence of Random Variables - 4
Link Probability Foundation for Electrical Engineers Lecture 87 - Convergence of Random Variables - 5
Link Probability Foundation for Electrical Engineers Lecture 88 - Convergence of Random Variables - 6
Link Probability Foundation for Electrical Engineers Lecture 89 - Convergence Of Characteristic Functions
Link Probability Foundation for Electrical Engineers Lecture 90 - Limit Theorems
Link Probability Foundation for Electrical Engineers Lecture 91 - The Law of Large Numbers - 1
Link Probability Foundation for Electrical Engineers Lecture 92 - The Law of Large Numbers - 2
Link Probability Foundation for Electrical Engineers Lecture 93 - The Central Limit Theorem - 1
Link Probability Foundation for Electrical Engineers Lecture 94 - The Central Limit Theorem - 2
Link Probability Foundation for Electrical Engineers Lecture 95 - A Brief Overview of Multivariate Gaussians - 1
Link Probability Foundation for Electrical Engineers Lecture 96 - A Brief Overview of Multivariate Gaussians - 2
Link NOC:Analog Circuits Lecture 1 - Introduction to the course
Link NOC:Analog Circuits Lecture 2 - Obtaining power gain
Link NOC:Analog Circuits Lecture 3 - Obtaining power gain using a linear two port?
Link NOC:Analog Circuits Lecture 4 - One port (two terminal) nonlinear element
Link NOC:Analog Circuits Lecture 5 - Nonlinear circuit analysis
Link NOC:Analog Circuits Lecture 6 - Small signal incremental analysis - graphical view
Link NOC:Analog Circuits Lecture 7 - Small signal incremental analysis
Link NOC:Analog Circuits Lecture 8 - Incremental equivalent circuit
Link NOC:Analog Circuits Lecture 9 - Large signal characteristics of a diode
Link NOC:Analog Circuits Lecture 10 - Analysis of diode circuits
Link NOC:Analog Circuits Lecture 11 - Small signal model of a diode
Link NOC:Analog Circuits Lecture 12 - Two port nonlinearity
Link NOC:Analog Circuits Lecture 13 - Small signal equivalent of a two port network
Link NOC:Analog Circuits Lecture 14 - Small signal equivalent circuit of a two port network
Link NOC:Analog Circuits Lecture 15 - Gain of a two port network
Link NOC:Analog Circuits Lecture 16 - Constraints on small signal parameters to maximize the gain
Link NOC:Analog Circuits Lecture 17 - Constraints on large signal characteristics to maximize the gain
Link NOC:Analog Circuits Lecture 18 - Implications of constraints in terms of the circuit equivalent
Link NOC:Analog Circuits Lecture 19 - MOS transistor-description
Link NOC:Analog Circuits Lecture 20 - MOS transistor large signal characteristics
Link NOC:Analog Circuits Lecture 21 - MOS transistor large signal characteristics - graphical view
Link NOC:Analog Circuits Lecture 22 - MOS transistor small signal characteristics
Link NOC:Analog Circuits Lecture 23 - Linear (Triode) region of the MOS transistor
Link NOC:Analog Circuits Lecture 24 - Small signal amplifier using the MOS transistor
Link NOC:Analog Circuits Lecture 25 - Basic amplifier structure
Link NOC:Analog Circuits Lecture 26 - Problems with the basic structure
Link NOC:Analog Circuits Lecture 27 - Adding bias and signal-ac coupling
Link NOC:Analog Circuits Lecture 28 - Common source amplifier with biasing
Link NOC:Analog Circuits Lecture 29 - Common source amplifier: Small signal equivalent circuit
Link NOC:Analog Circuits Lecture 30 - Common source amplifier analysis: Effect of biasing components
Link NOC:Analog Circuits Lecture 31 - Constraint on the input coupling capacitor
Link NOC:Analog Circuits Lecture 32 - Constraint on the output coupling capacitor
Link NOC:Analog Circuits Lecture 33 - Dependence of ID on VDS
Link NOC:Analog Circuits Lecture 34 - Small signal output conductance of a MOS transistor
Link NOC:Analog Circuits Lecture 35 - Effect of gds on a common source amplifier; Inherent gain limit of a transistor
Link NOC:Analog Circuits Lecture 36 - Variation gm with transistor parameters
Link NOC:Analog Circuits Lecture 37 - Variation of gm with constant VGS and constant drain current bias
Link NOC:Analog Circuits Lecture 38 - Negative feedback control for constant drain current bias
Link NOC:Analog Circuits Lecture 39 - Types of feedback for constant drain current bias
Link NOC:Analog Circuits Lecture 40 - Sense at the drain and feedback to the gate-Drain feedback
Link NOC:Analog Circuits Lecture 41 - Intuitive explanation of low sensitivity with drain feedback
Link NOC:Analog Circuits Lecture 42 - Common source amplifier with drain feedback bias
Link NOC:Analog Circuits Lecture 43 - Constraint on the gate bias resistor
Link NOC:Analog Circuits Lecture 44 - Constraint on the input coupling capacitor
Link NOC:Analog Circuits Lecture 45 - Constraint on the output coupling capacitor
Link NOC:Analog Circuits Lecture 46 - Input and output resistances of the common source amplifier with constant VGS bias
Link NOC:Analog Circuits Lecture 47 - Current mirror
Link NOC:Analog Circuits Lecture 48 - Common souce amplifier with current mirror bias
Link NOC:Analog Circuits Lecture 49 - Constraint on coupling capacitors and bias resistance
Link NOC:Analog Circuits Lecture 50 - Diode connected transistor
Link NOC:Analog Circuits Lecture 51 - Source feedback biasing
Link NOC:Analog Circuits Lecture 52 - Common source amplifier with source feedback bias
Link NOC:Analog Circuits Lecture 53 - Constraints on capacitor values
Link NOC:Analog Circuits Lecture 54 - Sensing at the drain and feeding back to the source
Link NOC:Analog Circuits Lecture 55 - Sensing at the source and feeding back to the gate
Link NOC:Analog Circuits Lecture 56 - Ensuring that transistor is in saturation
Link NOC:Analog Circuits Lecture 57 - Using a resistor instead of current source for biasing
Link NOC:Analog Circuits Lecture 58 - Controlled sources using a MOS transistor-Introduction
Link NOC:Analog Circuits Lecture 59 - Voltage controlled voltage source
Link NOC:Analog Circuits Lecture 60 - VCVS using a MOS transistor
Link NOC:Analog Circuits Lecture 61 - VCVS using a MOS transistor - Small signal picture
Link NOC:Analog Circuits Lecture 62 - VCVS using a MOS transistor - Complete circuit
Link NOC:Analog Circuits Lecture 63 - Source follower: Effect of output conductance; Constraints on coupling capacitors
Link NOC:Analog Circuits Lecture 64 - VCCS using a MOS transistor
Link NOC:Analog Circuits Lecture 65 - VCCS using a MOS transistor: Small signal picture
Link NOC:Analog Circuits Lecture 66 - VCCS using a MOS transistor: Complete circuit
Link NOC:Analog Circuits Lecture 67 - VCCS using a MOS transistor: AC coupling the output
Link NOC:Analog Circuits Lecture 68 - Source degenrated CS amplifier
Link NOC:Analog Circuits Lecture 69 - CCCS using a MOS transistor
Link NOC:Analog Circuits Lecture 70 - CCCS using a MOS transistor: Small signal picture
Link NOC:Analog Circuits Lecture 71 - CCCS using a MOS transistor: Complete circuit
Link NOC:Analog Circuits Lecture 72 - CCVS using a MOS transistor
Link NOC:Analog Circuits Lecture 73 - CCVS using a MOS transistor: Gain
Link NOC:Analog Circuits Lecture 74 - CCVS using a MOS transistor: Input and output resistances
Link NOC:Analog Circuits Lecture 75 - CCVS using a MOS transistor: Complete circuit
Link NOC:Analog Circuits Lecture 76 - VCVS using an opamp
Link NOC:Analog Circuits Lecture 77 - CCVS using an opamp
Link NOC:Analog Circuits Lecture 78 - Negative feedback and virtual short in an opamp
Link NOC:Analog Circuits Lecture 79 - Negative feedback and virtual short in a transistor
Link NOC:Analog Circuits Lecture 80 - Constraints on controlled sources using opamps and transistors
Link NOC:Analog Circuits Lecture 81 - Quick tour of amplifying devices
Link NOC:Analog Circuits Lecture 82 - Signal swing limits in amplifiers
Link NOC:Analog Circuits Lecture 83 - Swing limit due to transistor entering triode region
Link NOC:Analog Circuits Lecture 84 - Swing limit due to transistor entering cutoff region
Link NOC:Analog Circuits Lecture 85 - Swing limit calculation example
Link NOC:Analog Circuits Lecture 86 - Swing limits-more calculations
Link NOC:Analog Circuits Lecture 87 - pMOS transistor
Link NOC:Analog Circuits Lecture 88 - Small signal model of the pMOS transistor
Link NOC:Analog Circuits Lecture 89 - Common source amplifier using the pMOS transistor
Link NOC:Analog Circuits Lecture 90 - Swing limits of the pMOS common source amplifier
Link NOC:Analog Circuits Lecture 91 - Biasing a pMOS transistor at a constant current; pMOS current mirror
Link NOC:Analog Circuits Lecture 92 - Converting nMOS transistor circuits to pMOS
Link NOC:Analog Circuits Lecture 93 - Bias current generation
Link NOC:Analog Circuits Lecture 94 - Examples of more than one transistor in feedback
Link NOC:Analog Circuits Lecture 95 - Gain limitation in a common source amplifier with resistive load
Link NOC:Analog Circuits Lecture 96 - nMOS active load for pMOS common source amplifier
Link NOC:Analog Circuits Lecture 97 - CMOS inverter
Link NOC:Analog Circuits Lecture 98 - Large signal characteristics of pMOS CS amplifier with nMOS active load
Link NOC:Analog Circuits Lecture 99 - Large signal characteristics of nMOS CS amplifier with pMOS active load
Link NOC:Analog Circuits Lecture 100 - Large signal characteristics of a CMOS inverter
Link NOC:Analog Circuits Lecture 101 - Active load amplifiers as digital gates
Link NOC:Analog Circuits Lecture 102 - Sensitivity of output bias to input bias in a CMOS inverter
Link NOC:Analog Circuits Lecture 103 - Self biasing a CMOS inverter
Link NOC:Analog Circuits Lecture 104 - An application of self biased inverters
Link NOC:Analog Circuits Lecture 105 - Current consumption of a self-biased inverter; Current biasing
Link NOC:Analog Circuits Lecture 106 - Amplifying a difference signal; Differential pair
Link NOC:Analog Circuits Lecture 107 - Differential pair-small signal basics
Link NOC:Analog Circuits Lecture 108 - Biasing a differential pair
Link NOC:Analog Circuits Lecture 109 - Differential pair with differential excitation
Link NOC:Analog Circuits Lecture 110 - Differential pair with a current mirror load
Link NOC:Analog Circuits Lecture 111 - Differential pair with a current mirror load - operating point
Link NOC:Analog Circuits Lecture 112 - Differential pair with a current mirror load - Norton equivalent current
Link NOC:Analog Circuits Lecture 113 - Differential pair with a current mirror load - Norton equivalent resistance
Link NOC:Analog Circuits Lecture 114 - Common mode gain
Link NOC:Analog Circuits Lecture 115 - Single stage opamp
Link NOC:Analog Circuits Lecture 116 - Single stage opamp: Input common mode swing limits
Link NOC:Analog Circuits Lecture 117 - Single stage opamp: Output swing limits
Link NOC:Analog Circuits Lecture 118 - Which transistor type to use for the second stage?
Link NOC:Analog Circuits Lecture 119 - Small signal gain
Link NOC:Analog Circuits Lecture 120 - DC negative feedback biasing of all stages
Link NOC:Analog Circuits Lecture 121 - DC negative feedback biasing of all stages (Continued...)
Link NOC:Analog Circuits Lecture 122 - Small signal model
Link NOC:Analog Circuits Lecture 123 - Swing limits
Link NOC:Analog Circuits Lecture 124 - Systematic offset; How to eliminate it
Link NOC:Analog Circuits Lecture 125 - Bipolar junction transistor(BJT): Large signal model
Link NOC:Analog Circuits Lecture 126 - BJT model for calculating operating points
Link NOC:Analog Circuits Lecture 127 - BJT small signal model
Link NOC:Analog Circuits Lecture 128 - Biasing a BJT
Link NOC:Analog Circuits Lecture 129 - Biasing a BJT, (Continued...)
Link NOC:Analog Circuits Lecture 130 - Amplifiers using BJTs
Link NOC:Analog Circuits Lecture 131 - PNP transistor
Link NOC:Introduction to Non Linear Dynamics Lecture 1 - A brief introduction to modelling
Link NOC:Introduction to Non Linear Dynamics Lecture 2 - Dynamics and Nonlinear systems: getting started
Link NOC:Introduction to Non Linear Dynamics Lecture 3 - 1-Dimensional Flows, Flows on the Line, Lecture 1
Link NOC:Introduction to Non Linear Dynamics Lecture 4 - 1-Dimensional Flows, Flows on the Line, Lecture 2
Link NOC:Introduction to Non Linear Dynamics Lecture 5 - 1-Dimensional Flows, Flows on the Line, Lecture 3
Link NOC:Introduction to Non Linear Dynamics Lecture 6 - 1-Dimensional Flows, Flows on the Line, Lecture 4
Link NOC:Introduction to Non Linear Dynamics Lecture 7 - 1-Dimensional Flows, Flows on the Line, Lecture 5
Link NOC:Introduction to Non Linear Dynamics Lecture 8 - 1-Dimensional Flows, Flows on the Line, Lecture 6
Link NOC:Introduction to Non Linear Dynamics Lecture 9 - 1-Dimensional Flows, Bifurcations, Lecture 1
Link NOC:Introduction to Non Linear Dynamics Lecture 10 - 1-Dimensional Flows, Bifurcations, Lecture 2
Link NOC:Introduction to Non Linear Dynamics Lecture 11 - 1-Dimensional Flows, Bifurcations, Lecture 3
Link NOC:Introduction to Non Linear Dynamics Lecture 12 - 1-Dimensional Flows, Bifurcations, Lecture 4
Link NOC:Introduction to Non Linear Dynamics Lecture 13 - 1-Dimensional Flows, Bifurcations, Lecture 5
Link NOC:Introduction to Non Linear Dynamics Lecture 14 - 1-Dimensional Flows, Bifurcations, Lecture 6
Link NOC:Introduction to Non Linear Dynamics Lecture 15 - 1-Dimensional Flows, Flows on the Circle, Lecture 1
Link NOC:Introduction to Non Linear Dynamics Lecture 16 - 1-Dimensional Flows, Flows on the Circle, Lecture 2
Link NOC:Introduction to Non Linear Dynamics Lecture 17 - 2-Dimensional Flows, Linear Systems, Lecture 1
Link NOC:Introduction to Non Linear Dynamics Lecture 18 - 2-Dimensional Flows, Linear Systems, Lecture 2
Link NOC:Introduction to Non Linear Dynamics Lecture 19 - 2-Dimensional Flows, Linear Systems, Lecture 3
Link NOC:Introduction to Non Linear Dynamics Lecture 20 - 2-Dimensional Flows, Linear Systems, Lecture 4
Link NOC:Introduction to Non Linear Dynamics Lecture 21 - 2-Dimensional Flows, Phase Plane, Lecture 1
Link NOC:Introduction to Non Linear Dynamics Lecture 22 - 2-Dimensional Flows, Phase Plane, Lecture 2
Link NOC:Introduction to Non Linear Dynamics Lecture 23 - 2-Dimensional Flows, Phase Plane, Lecture 3
Link NOC:Introduction to Non Linear Dynamics Lecture 24 - 2-Dimensional Flows, Limit Cycles, Lecture 1
Link NOC:Introduction to Non Linear Dynamics Lecture 25 - 2-Dimensional Flows, Limit Cycles, Lecture 2
Link NOC:Introduction to Non Linear Dynamics Lecture 26 - 2-Dimensional Flows, Limit Cycles, Lecture 3
Link NOC:Introduction to Non Linear Dynamics Lecture 27 - 2-Dimensional Flows, Bifurcations, Lecture 1
Link NOC:Introduction to Non Linear Dynamics Lecture 28 - 2-Dimensional Flows, Bifurcations, Lecture 2
Link NOC:Introduction to Non Linear Dynamics Lecture 29 - 2-Dimensional Flows, Bifurcations, Lecture 3
Link NOC:Control Engineering Lecture 1 - Introduction to Systems and Control
Link NOC:Control Engineering Lecture 2 - Modelling of Systems
Link NOC:Control Engineering Lecture 3 - Elements of Modelling
Link NOC:Control Engineering Lecture 4 - Examples of Modelling
Link NOC:Control Engineering Lecture 5 - Solving Problems in Modelling of Systems
Link NOC:Control Engineering Lecture 6 - Laplace Transforms
Link NOC:Control Engineering Lecture 7 - Inverse Laplace Transforms
Link NOC:Control Engineering Lecture 8 - Transfer Function of Modelling Block Diagram Representation
Link NOC:Control Engineering Lecture 9 - Solving Problems on Laplace Transforms and Transfer Functions
Link NOC:Control Engineering Lecture 10 - Block Diagram Reduction, Signal Flow Graphs
Link NOC:Control Engineering Lecture 11 - Solving Problems on Block Diagram Reduction, Signal Flow Graphs
Link NOC:Control Engineering Lecture 12 - Time Response Analyzsis of systems
Link NOC:Control Engineering Lecture 13 - Time Response specifications
Link NOC:Control Engineering Lecture 14 - Solving Problems on Time Response Analyzsis ans specifications
Link NOC:Control Engineering Lecture 15 - Stability
Link NOC:Control Engineering Lecture 16 - Routh Hurwitz Criterion
Link NOC:Control Engineering Lecture 17 - Routh Hurwitz Criterion T 1
Link NOC:Control Engineering Lecture 18 - Closed loop System and Stability
Link NOC:Control Engineering Lecture 19 - Root Locus Technique
Link NOC:Control Engineering Lecture 20 - Root Locus Plots
Link NOC:Control Engineering Lecture 21 - Root Locus Plots (Continued...)
Link NOC:Control Engineering Lecture 22 - Root Locus Plots (Continued...)
Link NOC:Control Engineering Lecture 23 - Root Locus Plots (Continued...)
Link NOC:Control Engineering Lecture 24 - Introduction to Frequency Response
Link NOC:Control Engineering Lecture 25 - Frequency Response Plots
Link NOC:Control Engineering Lecture 26 - Relative Stability
Link NOC:Control Engineering Lecture 27 - Bode plots
Link NOC:Control Engineering Lecture 28 - Basics of Control design Proportional, Integral and Derivative Actions
Link NOC:Control Engineering Lecture 29 - Basics of Control design Proportional, Integral and Derivative Actions
Link NOC:Control Engineering Lecture 30 - Problems on PID Controllers
Link NOC:Control Engineering Lecture 31 - Basics of Control design Proportional, Integral and Derivative Actions
Link NOC:Control Engineering Lecture 32 - Control design in time domain and discusses the lead compensator
Link NOC:Control Engineering Lecture 33 - Improvement of the Transient Response using lead compensation
Link NOC:Control Engineering Lecture 34 - Design of control using lag compensators
Link NOC:Control Engineering Lecture 35 - The design of Lead-Lag compensators using root locus
Link NOC:Control Engineering Lecture 36 - Introduction design of control in frequency domain
Link NOC:Control Engineering Lecture 37 - Design of Lead Compensator using Bode Plots
Link NOC:Control Engineering Lecture 38 - Design of Lag Compensators using Bode Plots
Link NOC:Control Engineering Lecture 39 - Design of Lead-Lag Compensators using Bode plots
Link NOC:Control Engineering Lecture 40 - Experimental Determination of Transfer Function
Link NOC:Control Engineering Lecture 41 - Effect of Zeros on System Response
Link NOC:Control Engineering Lecture 42 - Navigation - Stories and Some Basics
Link NOC:Control Engineering Lecture 43 - Navigation - Dead Reckoning and Reference Frames
Link NOC:Control Engineering Lecture 44 - Inertial Sensors and Their Characteristics
Link NOC:Control Engineering Lecture 45 - Filter Design to Attentuate Inertial Sensor Noise
Link NOC:Control Engineering Lecture 46 - Complementary Filter
Link NOC:Control Engineering Lecture 47 - Complementary Filter - 1
Link NOC:Control Engineering Lecture 48 - Introduction to State Space Systems
Link NOC:Control Engineering Lecture 49 - Linearization of State Space Dynamics
Link NOC:Control Engineering Lecture 50 - Linearization of State Space Dynamics - 1
Link NOC:Control Engineering Lecture 51 - Controllability and Observability
Link NOC:Control Engineering Lecture 52 - State Space Canonical Forms
Link NOC:Control Engineering Lecture 53 - State Space Solution and Matrix Exponential
Link NOC:Control Engineering Lecture 54 - Controllability and Pole Placement
Link NOC:Control Engineering Lecture 55 - Controllable Decomposition and Observability
Link NOC:Probability Foundations for Electrical Engineers Lecture 1 - Experiments, Outcomes and Events
Link NOC:Probability Foundations for Electrical Engineers Lecture 2 - Examples: Experiments and sample spaces
Link NOC:Probability Foundations for Electrical Engineers Lecture 3 - Operations on Events
Link NOC:Probability Foundations for Electrical Engineers Lecture 4 - Examples: Sample spaces and events
Link NOC:Probability Foundations for Electrical Engineers Lecture 5 - Sigma Fields and Probability
Link NOC:Probability Foundations for Electrical Engineers Lecture 6 - Discrete Sample Spaces
Link NOC:Probability Foundations for Electrical Engineers Lecture 7 - Union and Partition
Link NOC:Probability Foundations for Electrical Engineers Lecture 8 - Examples: Probability Calculation for Equally likely Outcomes
Link NOC:Probability Foundations for Electrical Engineers Lecture 9 - Definition and Basic Properties
Link NOC:Probability Foundations for Electrical Engineers Lecture 10 - Bayes' Rule for Partitions
Link NOC:Probability Foundations for Electrical Engineers Lecture 11 - Examples: Conditional probability
Link NOC:Probability Foundations for Electrical Engineers Lecture 12 - Example of Detection
Link NOC:Probability Foundations for Electrical Engineers Lecture 13 - Example: Coloured Cards from a Box
Link NOC:Probability Foundations for Electrical Engineers Lecture 14 - Independence of Events
Link NOC:Probability Foundations for Electrical Engineers Lecture 15 - Examples: Independence
Link NOC:Probability Foundations for Electrical Engineers Lecture 16 - Combining Independent Experiments
Link NOC:Probability Foundations for Electrical Engineers Lecture 17 - Conditional Independence
Link NOC:Probability Foundations for Electrical Engineers Lecture 18 - Examples and Computations with Conditional Independence
Link NOC:Probability Foundations for Electrical Engineers Lecture 19 - Binomial and Geometric Models
Link NOC:Probability Foundations for Electrical Engineers Lecture 20 - Examples: Binomial and Geometric Model
Link NOC:Probability Foundations for Electrical Engineers Lecture 21 - Definition and Discrete Setting
Link NOC:Probability Foundations for Electrical Engineers Lecture 22 - RandomVariables and Events
Link NOC:Probability Foundations for Electrical Engineers Lecture 23 - Examples: Discrete random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 24 - Important distributions
Link NOC:Probability Foundations for Electrical Engineers Lecture 25 - Examples: Discrete PMFs
Link NOC:Probability Foundations for Electrical Engineers Lecture 26 - Real-life modeling example
Link NOC:Probability Foundations for Electrical Engineers Lecture 27 - More Distributions
Link NOC:Probability Foundations for Electrical Engineers Lecture 28 - Conditional PMFs, Conditioning on an event, Indicator random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 29 - Example: Conditioning on an event, Indicator random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 30 - Multiple random variables and joint distribution
Link NOC:Probability Foundations for Electrical Engineers Lecture 31 - Example: Two random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 32 - Marginal PMF
Link NOC:Probability Foundations for Electrical Engineers Lecture 33 - Trinomial joint PMF
Link NOC:Probability Foundations for Electrical Engineers Lecture 34 - Events and Conditioning with Two Random Variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 35 - Example: compute marginal and conditional PMFs, probability of events
Link NOC:Probability Foundations for Electrical Engineers Lecture 36 - Independent random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 37 - More on independence
Link NOC:Probability Foundations for Electrical Engineers Lecture 38 - Example: IID Repetitions
Link NOC:Probability Foundations for Electrical Engineers Lecture 39 - Addition of Random Variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 40 - Sum, Difference and Max of Two Random Variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 41 - More Computations: Min of Two Random Variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 42 - Example: X+Y, X-Y, min(X,Y), max(X,Y)
Link NOC:Probability Foundations for Electrical Engineers Lecture 43 - Real line as sample space
Link NOC:Probability Foundations for Electrical Engineers Lecture 44 - Probability density function (pdf)
Link NOC:Probability Foundations for Electrical Engineers Lecture 45 - Cumulative distribution function (CDF)
Link NOC:Probability Foundations for Electrical Engineers Lecture 46 - Continuous random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 47 - pdf and CDF of continuous random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 48 - Spinning pointer example
Link NOC:Probability Foundations for Electrical Engineers Lecture 49 - Important continuous distributions
Link NOC:Probability Foundations for Electrical Engineers Lecture 50 - More continuous distributions
Link NOC:Probability Foundations for Electrical Engineers Lecture 51 - Two-dimensional real sample space
Link NOC:Probability Foundations for Electrical Engineers Lecture 52 - Joint pdf and joint CDF
Link NOC:Probability Foundations for Electrical Engineers Lecture 53 - More on assigning probability to regions of x-y plain
Link NOC:Probability Foundations for Electrical Engineers Lecture 54 - Darts example and marginal pdfs
Link NOC:Probability Foundations for Electrical Engineers Lecture 55 - Independence to two continuous random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 56 - Examples: two independent continuous random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 57 - Prob[ X > Y ]: computation of probability of a non-rectangular region
Link NOC:Probability Foundations for Electrical Engineers Lecture 58 - Transformations of random variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 59 - CDF method
Link NOC:Probability Foundations for Electrical Engineers Lecture 60 - pdf method
Link NOC:Probability Foundations for Electrical Engineers Lecture 61 - Examples
Link NOC:Probability Foundations for Electrical Engineers Lecture 62 - One-to-one transformations
Link NOC:Probability Foundations for Electrical Engineers Lecture 63 - Expected Value or Mean of a Random Variable
Link NOC:Probability Foundations for Electrical Engineers Lecture 64 - Properties of Expectation
Link NOC:Probability Foundations for Electrical Engineers Lecture 65 - Expectation Computations for Important Distributions
Link NOC:Probability Foundations for Electrical Engineers Lecture 66 - Variance
Link NOC:Probability Foundations for Electrical Engineers Lecture 67 - Examples of Variance
Link NOC:Probability Foundations for Electrical Engineers Lecture 68 - Expectations with Two Random Variables
Link NOC:Probability Foundations for Electrical Engineers Lecture 69 - Correlation and Covariance
Link NOC:Probability Foundations for Electrical Engineers Lecture 70 - Examples: Continuous Distributions
Link NOC:Probability Foundations for Electrical Engineers Lecture 71 - Examples: Symmetry
Link NOC:Probability Foundations for Electrical Engineers Lecture 72 - Examples: Discrete Distributions
Link NOC:Probability Foundations for Electrical Engineers Lecture 73 - Live Session
Link NOC:Introduction to Photonics Lecture 1 - Introduction to Photonics
Link NOC:Introduction to Photonics Lecture 2 - Diffraction and Interference
Link NOC:Introduction to Photonics Lecture 3 - Tutorial on Ray Optics and Wave Optics
Link NOC:Introduction to Photonics Lecture 4 - Lab Demonstration : Diffractions and Interference
Link NOC:Introduction to Photonics Lecture 5 - Interferometers
Link NOC:Introduction to Photonics Lecture 6 - Coherence
Link NOC:Introduction to Photonics Lecture 7 - Spatial and Temporal Coherence
Link NOC:Introduction to Photonics Lecture 8 - Tutorial on Wave Optics
Link NOC:Introduction to Photonics Lecture 9 - Lab Demonstration: Michelson Interferometer
Link NOC:Introduction to Photonics Lecture 10 - Electromagnetic Optics
Link NOC:Introduction to Photonics Lecture 11 - Fiber Optics
Link NOC:Introduction to Photonics Lecture 12 - Photon Properties
Link NOC:Introduction to Photonics Lecture 13 - Lab Demonstration: Fiber modes, NA and MFD
Link NOC:Introduction to Photonics Lecture 14 - Photon Optics
Link NOC:Introduction to Photonics Lecture 15 - Tutorial on Photon optics
Link NOC:Introduction to Photonics Lecture 16 - Photon interaction - 1
Link NOC:Introduction to Photonics Lecture 17 - Photon interaction - 2
Link NOC:Introduction to Photonics Lecture 18 - Lab Demonstration: Interaction of light with matter
Link NOC:Introduction to Photonics Lecture 19 - Optical Amplification
Link NOC:Introduction to Photonics Lecture 20 - Three Level systems
Link NOC:Introduction to Photonics Lecture 21 - Four Level Systems
Link NOC:Introduction to Photonics Lecture 22 - EDFA Introduction
Link NOC:Introduction to Photonics Lecture 23 - EDFA Tutorial
Link NOC:Introduction to Photonics Lecture 24 - Lasers Part - 1
Link NOC:Introduction to Photonics Lecture 25 - Lab Demonstration: EDFA Characterization
Link NOC:Introduction to Photonics Lecture 26 - Lasers part- 2
Link NOC:Introduction to Photonics Lecture 27 - Lasers part- 3
Link NOC:Introduction to Photonics Lecture 28 - Lasers part- 4
Link NOC:Introduction to Photonics Lecture 29 - Lab Demonstration: Fiber Laser
Link NOC:Introduction to Photonics Lecture 30 - Semiconductor light Source and detector - Band structure
Link NOC:Introduction to Photonics Lecture 31 - Semiconductor light Source and detector - Light emission
Link NOC:Introduction to Photonics Lecture 32 - Semiconductor light Source and detector LED Characteristics
Link NOC:Introduction to Photonics Lecture 33 - Lab Demonstration: Semiconductor Sources
Link NOC:Introduction to Photonics Lecture 34 - Semiconductor light Source and detector Laser Characteristics
Link NOC:Introduction to Photonics Lecture 35 - Semiconductor Detectors - 1
Link NOC:Introduction to Photonics Lecture 36 - Semiconductor Detectors - 2
Link NOC:Introduction to Photonics Lecture 37 - Semiconductor Detectors - 3
Link NOC:Introduction to Photonics Lecture 38 - Lab Demonstration: Semiconductor Detectors
Link NOC:Introduction to Photonics Lecture 39 - Semiconductor Detectors - 4
Link NOC:Introduction to Photonics Lecture 40 - Light manipulation-Mallus' Law
Link NOC:Introduction to Photonics Lecture 41 - Light manipulation-Birefringence
Link NOC:Introduction to Photonics Lecture 42 - Light manipulation-Faraday Rotation
Link NOC:Introduction to Photonics Lecture 43 - Lab Demonstration: Manipulation of Light Intensity and Polarization
Link NOC:Introduction to Photonics Lecture 44 - Non-linear optics-Pockels effect
Link NOC:Introduction to Photonics Lecture 45 - Non-linear optics-Kerr Effect
Link NOC:Introduction to Photonics Lecture 46 - Lab Demonstration: Manipulation of Light Electro Optic Modulator (EOM)
Link NOC:Introduction to Photonics Lecture 47 - Non-linear optics-stimulated Brillouin scattering
Link NOC:Introduction to Photonics Lecture 48 - Non-linear optics-stimulated Raman scattering
Link NOC:Multirate DSP Lecture 1 - Introduction to Multirate DSP - Part 1
Link NOC:Multirate DSP Lecture 2 - Introduction to Multirate DSP - Part 2
Link NOC:Multirate DSP Lecture 3 - Sampling and Nyquist criterion - Part 1
Link NOC:Multirate DSP Lecture 4 - Sampling and Nyquist criterion - Part 2
Link NOC:Multirate DSP Lecture 5 - Signal Reconstruction - Part 1
Link NOC:Multirate DSP Lecture 6 - Signal Reconstruction - Part 2
Link NOC:Multirate DSP Lecture 7 - Reconstruction filter - Part 1
Link NOC:Multirate DSP Lecture 8 - Reconstruction filter - Part 2
Link NOC:Multirate DSP Lecture 9 - Discrete time processing of continuous time signal - Part 1
Link NOC:Multirate DSP Lecture 10 - Discrete time processing of continuous time signal - Part 2
Link NOC:Multirate DSP Lecture 11 - DT processing of CT signal example
Link NOC:Multirate DSP Lecture 12 - Time scaling- upsampler and downsampler - Part 1
Link NOC:Multirate DSP Lecture 13 - Time scaling- upsampler and downsampler - Part 2
Link NOC:Multirate DSP Lecture 14 - Upsampler and downsampler- continued - Part 1
Link NOC:Multirate DSP Lecture 15 - Upsampler and downsampler- continued - Part 2
Link NOC:Multirate DSP Lecture 16 - Decimator properties
Link NOC:Multirate DSP Lecture 17 - Properties of Upsampler and Downsampler
Link NOC:Multirate DSP Lecture 18 - Fractional sampling rate change - Part 1
Link NOC:Multirate DSP Lecture 19 - Fractional sampling rate change - Part 2
Link NOC:Multirate DSP Lecture 20 - Multiplexer/ demultiplexer interpretation
Link NOC:Multirate DSP Lecture 21 - Noble identities and polyphase decomposition - Part 1
Link NOC:Multirate DSP Lecture 22 - Noble identities and polyphase decomposition - Part 2
Link NOC:Multirate DSP Lecture 23 - Polyphase decomposition continued - Part 1
Link NOC:Multirate DSP Lecture 24 - Polyphase decomposition continued - Part 2
Link NOC:Multirate DSP Lecture 25 - Introduction to Multirate Filter Banks
Link NOC:Multirate DSP Lecture 26 - Applications of Multirate - Part 1
Link NOC:Multirate DSP Lecture 27 - Applications of Multirate - Part 2
Link NOC:Multirate DSP Lecture 28 - Spectral Analysis of Filter Bank - Part 1
Link NOC:Multirate DSP Lecture 29 - Spectral Analysis of Filter Bank - Part 2
Link NOC:Multirate DSP Lecture 30 - DFT and High Resolution Spectral Analysis - Part 1
Link NOC:Multirate DSP Lecture 31 - DFT and High Resolution Spectral Analysis - Part 2
Link NOC:Multirate DSP Lecture 32 - Transmultiplexer and Maximally Decimated Filterbanks - Part 1
Link NOC:Multirate DSP Lecture 33 - Transmultiplexer and Maximally Decimated Filterbanks - Part 2
Link NOC:Multirate DSP Lecture 34 - Maximally Decimated Filterbanks 2 - Part 1
Link NOC:Multirate DSP Lecture 35 - Maximally Decimated Filterbanks 2 - Part 2
Link NOC:Multirate DSP Lecture 36 - Study of Two-channel filter bank
Link NOC:Multirate DSP Lecture 37 - Introduction to Quadrature Mirror Filters (QMF)
Link NOC:Multirate DSP Lecture 38 - 2-channel QMF Filter Bank Design
Link NOC:Multirate DSP Lecture 39 - Study of All-pass filters
Link NOC:Multirate DSP Lecture 40 - Study of All-pass lattice
Link NOC:Multirate DSP Lecture 41 - All-pass decomposition, the study of Mth band and Nyquist filters
Link NOC:Multirate DSP Lecture 42 - Study of two-channel filter bank with perfect reconstruction
Link NOC:Multirate DSP Lecture 43 - First part name : Perfect Reconstruction Final Overview. Second part name : Introduction to OFDM- Motivation - Part 1
Link NOC:Multirate DSP Lecture 44 - First part name : Perfect Reconstruction Final Overview. Second part name : Introduction to OFDM- Motivation - Part 2
Link NOC:Multirate DSP Lecture 45 - Capacity of wireless channels - CSIR - Part 1
Link NOC:Multirate DSP Lecture 46 - Capacity of wireless channels - CSIT - Part 2
Link NOC:Multirate DSP Lecture 47 - Capacity of wireless channels - Formulation of capacity calculation - Part 3
Link NOC:Multirate DSP Lecture 48 - Capacity of wireless channels - Formulation of capacity calculation (Continued...) - Part 1
Link NOC:Multirate DSP Lecture 49 - Capacity of wireless channels - Formulation of capacity calculation (Continued...) - Part 2
Link NOC:Multirate DSP Lecture 50 - Capacity of wireless channels - Time-invariant Frequency selective channel - Part 3
Link NOC:Multirate DSP Lecture 51 - Capacity of wireless channels - Time varying Frequency selective channels - Part 1
Link NOC:Multirate DSP Lecture 52 - Multi-rate DSP framework for Multi-carrier Modulation - Part 2
Link NOC:Multirate DSP Lecture 53 - MCM with overlapping spectra - Part 1
Link NOC:Multirate DSP Lecture 54 - Recap of multirate DSP concepts for building OFDM - Part 2
Link NOC:Multirate DSP Lecture 55 - Introduction to Redundancy and it's implementation in multi-rate framework - Part 3
Link NOC:Multirate DSP Lecture 56 - M-channel multicarrier Transceiver - Part 1
Link NOC:Multirate DSP Lecture 57 - M-channel multicarrier Transceiver - Part 2
Link NOC:Multirate DSP Lecture 58 - M-channel multicarrier Transceiver - Part 3
Link NOC:Multirate DSP Lecture 59 - Pseudo -circulant structure - Part 1
Link NOC:Multirate DSP Lecture 60 - Pseudo -circulant structure - Part 2
Link NOC:Multirate DSP Lecture 61 - MCM impairments and CP - Part 1
Link NOC:Multirate DSP Lecture 62 - MCM impairments and CP - Part 2
Link NOC:Multirate DSP Lecture 63 - Orthogonal Frequency Division Multiplexing - Part 1
Link NOC:Multirate DSP Lecture 64 - Orthogonal Frequency Division Multiplexing - Part 2
Link NOC:Multirate DSP Lecture 65 - Review of OFDM with CP
Link NOC:Multirate DSP Lecture 66 - Review of Lec 1-28
Link NOC:Multirate DSP Lecture 67 - OFDM applications - Quantization - Part 1
Link NOC:Multirate DSP Lecture 68 - OFDM applications - Quantization - Part 2
Link NOC:Multirate DSP Lecture 69 - Some more applications of MDSP
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 1 - Additive White Gaussian Noise (AWGN) Channel and BPSK
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 2 - Bit Error Rate (BER) and Signal to Noise Ratio (SNR)
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 3 - Error Correction Coding in a Digital Communication System
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 4 - Complementary Error Function
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 5 - Simulation of Uncoded BPSK and BER v/s Eb/N0 plot Generation in MATLAB/Octave
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 6 - n = 3 Repetition Code
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 7 - Implementation of n = 3 Repetition Code in MATLAB
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 8 - (7,4) Hamming Code
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 9 - A Brief Introduction to Linear Block Codes
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 10 - Simulation of (7,4) Hamming Code in MATLAB
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 11 - Low Density Parity Check Codes: definition, properties and introduction to protograph construction
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 12 - LDPC Codes in 5G: protograph, base matrix, expansion
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 13 - Encoding LDPC codes in 5G
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 14 - MATLAB programs for encoding LDPC codes
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 15 - Log-Likelihood Ratio and Soft Input and Soft Output (SISO) Decoder for the Repetition Code
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 16 - Soft Input and Soft Output (SISO) Decoder for the Single Parity Check (SPC) Code
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 17 - SISO decoder for a general (n,n-1) SPC code
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 18 - Illustration of SISO decoder for (3,2) SPC code and min-sum approximation
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 19 - Soft-Input Soft-Output Iterative Message Passing Decoder for LDPC Codes
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 20 - A Toy Example Illustration of the SISO MInsum Iterative Message Passing Decoder
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 21 - Modifications to the Decoder: Layered Decoding and Offset
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 22 - Implementation of SISO Layered Minsum Iterative Message Passing Decoder in MATLAB
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 23 - Debugging and Improvements to the MATLAB Implementation
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 24 - Rate Matching in LDPC Codes using Puncturing and Shortening
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 25 - Implementation of Fixed Point Quantization and Offset Minsum in the Decoder
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 26 - Introduction to Polar Codes: Polar Transform
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 27 - Channel Polarization, Definition of (N,K) Polar Code and Encoding
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 28 - MATLAB Implementation for Encoding Polar Codes
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 29 - Successive Cancellation (SC) Decoder for Polar Codes: Illustration of its Building Blocks with N=2,4
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 30 - Successive Cancellation (SC) Decoder for a General (N,K) Polar Code
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 31 - MATLAB Implementation of Successive Cancellation Decoder - Part 1
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 32 - MATLAB Implementation of Successive Cancellation Decoder - Part 2
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 33 - Successive Cancellation List Decoding
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 34 - Fixed Point Quantization for SC Decoder and LDPC Decoder
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 35 - MATLAB Implementation of Successive Cancellation List Decoding
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 36 - Rate Matching for LDPC codes
Link NOC:LDPC and Polar Codes in 5G Standard Lecture 37 - Performance Comparison of LDPC codes and Polar Codes in 5G
Link NOC:Electromagnetic Compatibility, EMC Lecture 1 - Introduction to EMC - Definitions
Link NOC:Electromagnetic Compatibility, EMC Lecture 2 - Introduction to EMC - Sources, units etc
Link NOC:Electromagnetic Compatibility, EMC Lecture 3 - Electromagnetic principles - Faraday's and Ampere's equations
Link NOC:Electromagnetic Compatibility, EMC Lecture 4 - Electromagnetic principles - Gauss's equation, boundary conditions
Link NOC:Electromagnetic Compatibility, EMC Lecture 5 - Electromagnetic principles - Uniform plane wave
Link NOC:Electromagnetic Compatibility, EMC Lecture 6 - Electromagnetic principles - Transmission lines
Link NOC:Electromagnetic Compatibility, EMC Lecture 7 - Electromagnetic principles - Dipoles
Link NOC:Electromagnetic Compatibility, EMC Lecture 8 - High-frequency behaviour of components - Conductors
Link NOC:Electromagnetic Compatibility, EMC Lecture 9 - High-frequency behaviour of components - Capacitors, inductors, resistors
Link NOC:Electromagnetic Compatibility, EMC Lecture 10 - High-frequency behaviour of components - Mechanical switches and transformers
Link NOC:Electromagnetic Compatibility, EMC Lecture 11 - Crosstalk or near-field coupling - Capacitive coupling, inductive coupling, common-impedance coupling
Link NOC:Electromagnetic Compatibility, EMC Lecture 12 - Crosstalk or near-field coupling - Crosstalk combinations
Link NOC:Electromagnetic Compatibility, EMC Lecture 13 - Crosstalk or near-field coupling - Coupling to shielded cables
Link NOC:Electromagnetic Compatibility, EMC Lecture 14 - Electromagnetic coupling in the far-field
Link NOC:Electromagnetic Compatibility, EMC Lecture 15 - Field Coupling - Exercises
Link NOC:Electromagnetic Compatibility, EMC Lecture 16 - Solutions to EMC problems - Lay out and control of interfaces
Link NOC:Electromagnetic Compatibility, EMC Lecture 17 - Solutions to EMC problems - Grounding or earthing
Link NOC:Electromagnetic Compatibility, EMC Lecture 18 - Solutions to EMC problems - Electromagnetic Shielding
Link NOC:Electromagnetic Compatibility, EMC Lecture 19 - Solutions to EMC problems - Electromagnetic Shielding (Continued...)
Link NOC:Electromagnetic Compatibility, EMC Lecture 20 - Solutions to EMC problems - Shielded cables
Link NOC:Electromagnetic Compatibility, EMC Lecture 21 - Solutions to EMC problems - Filters and Surge protectors
Link NOC:Electromagnetic Compatibility, EMC Lecture 22 - Lightning Protection - Introduction
Link NOC:Electromagnetic Compatibility, EMC Lecture 23 - Lightning protection - Currents, charges and fields
Link NOC:Electromagnetic Compatibility, EMC Lecture 24 - Lightning Protection - Buildings
Link NOC:Electromagnetic Compatibility, EMC Lecture 25 - Lightning Protection - Towers, Lightning safety
Link NOC:Electromagnetic Compatibility, EMC Lecture 26 - EMC Requirements and Standard, Testing and Difficulties - 1
Link NOC:Electromagnetic Compatibility, EMC Lecture 27 - EMC Requirements and Standard, Testing and Difficulties - 2
Link NOC:Electromagnetic Compatibility, EMC Lecture 28 - Intentional Electromagnetic Interference or IEMI - 1
Link NOC:Electromagnetic Compatibility, EMC Lecture 29 - Intentional Electromagnetic Interference or IEMI - 2
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 1 - Introduction: Objectives and Pre-requisites
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 2 - Review of digital logic
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 3 - Timing and Power in digital circuits
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 4 - Implementation Costs and Metrics
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 5 - Example: Audio processing
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 6 - Example: AlexNet
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 7 - Architecture cost components
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 8 - Examples of Architectures
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 9 - Multi-objective Optimization
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 10 - Number representation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 11 - Scientific notation and Floating point
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 12 - Basic FIR filter
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 13 - Serial FIR filter architectures
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 14 - Simple programmable architecture
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 15 - Block diagrams and SFGs
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 16 - Dataflow Graphs
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 17 - Iteration period
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 18 - FIR filter iteration period
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 19 - IIR filter iteration period
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 20 - Computation Model
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 21 - Constraint analysis for IPB computation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 22 - Motivational examples for IPB
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 23 - General IPB computation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 24 - Sample period calculation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 25 - Parallel architecture
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 26 - Odd-even register reuse
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 27 - Power consumption
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 28 - Pipelining
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 29 - Pipelining FIL Filter
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 30 - Time-invariant Systems
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 31 - Valid Pipelining Examples
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 32 - Feedforward Cutsets
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 33 - Balanced Pipeline
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 34 - Retiming basic concept
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 35 - Example and uses of retiming
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 36 - Resource sharing: adder example
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 37 - Changing iteration period
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 38 - Hardware assumptions and constraint analysis
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 39 - Mathematical formulation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 40 - Examples with formulation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 41 - Example: Biquad filter
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 42 - Hardware architecture
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 43 - Review biquad folding sets
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 44 - Complete biquad hardware
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 45 - DEMO: FFT in Vivado HLS
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 46 - DEMO: FFT synthesis
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 47 - Obtaining a folding schedule
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 48 - ASAP schedule
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 49 - Utilization Efficiency
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 50 - ALAP schedule
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 51 - Iteration period bound and scheduling
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 52 - Retiming for scheduling
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 53 - Blocked schedules
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 54 - Overlapped schedules
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 55 - Improved blocked schedule
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 56 - Allocation, Binding and Scheduling
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 57 - DEMO: Analyze FFT implementation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 58 - DEMO: FFT interface
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 59 - Scheduling: problem formulation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 60 - Example: differential equation solver
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 61 - Heuristic approaches to scheduling
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 62 - Mathematical formulation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 63 - ILP formulation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 64 - List scheduling
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 65 - Hardware model
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 66 - Force Directed Scheduling
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 67 - DEMO: HLS on FFT
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 68 - DEMO: FFT Simulation and Optimization
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 69 - DEMO: CPU interfacing
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 70 - Software Compilation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 71 - Optimization Examples
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 72 - Loop optimizations - 1
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 73 - Loop optimizations - 2
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 74 - Loop optimizations - 3
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 75 - Software pipelining - 1
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 76 - Software pipelining - 2
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 77 - FFT Optimization
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 78 - Background: CPUs and FPGAs
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 79 - Demo: Vivado setup
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 80 - Demo: Vivado HLS FFT IP Export
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 81 - Demo: Vivado ILA and VIO on hardware
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 82 - Demo: FFT on FPGA board
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 83 - Demo: Simulating SoC and SDK
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 84 - Background: Understanding ELF files
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 85 - On-chip communication basics
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 86 - Many-to-Many communication
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 87 - AXI bus handshaking
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 88 - AXI bus (Continued...)
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 89 - Demo: Microblaze processor on FPGA
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 90 - Demo: Performance counter AXI peripheral
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 91 - Demo: HW accelerator for FPGA
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 92 - DMA and arbitration
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 93 - Network-on-chip basics
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 94 - NoC - Topologies and metrics
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 95 - NoC - Routing
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 96 - NoC - Switching and flow control
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 97 - Systolic Arrays - Background
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 98 - Systolic Arrays - Examples
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 99 - CORDIC algorithm
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 100 - Parallel implementation of FIR filters
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 101 - Unfolding Transformation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 102 - Lookahead Transformation
Link NOC:Mapping Signal Processing Algorithms to Architectures Lecture 103 - Introduction to GPUs and Matrix multiplication
Link NOC:Linear System Theory Lecture 1 - Introduction to Linear Systems
Link NOC:Linear System Theory Lecture 2 - System Models
Link NOC:Linear System Theory Lecture 3 - System Models - Part 1
Link NOC:Linear System Theory Lecture 4 - System Models - Part 2
Link NOC:Linear System Theory Lecture 5 - General Representation
Link NOC:Linear System Theory Lecture 6 - Sets, Functions and Fields
Link NOC:Linear System Theory Lecture 7 - Linear Algebra - Vector Spaces and Metric Spaces
Link NOC:Linear System Theory Lecture 8 - Linear Algebra - Span, Basis and Subspaces
Link NOC:Linear System Theory Lecture 9 - Linear Algebra - Linear Maps and Matrices
Link NOC:Linear System Theory Lecture 10 - Linear Algebra - Fundamental Subspaces and Rank-Nullity
Link NOC:Linear System Theory Lecture 11 - Tutorial 1 on Linear Algebra
Link NOC:Linear System Theory Lecture 12 - Linear Algebra - Change of Basis and Similarity Transformation
Link NOC:Linear System Theory Lecture 13 - Linear Algebra - Invariant Subspaces, Eigen Values and Eigen Vectors
Link NOC:Linear System Theory Lecture 14 - Linear Algebra - Diagonalization and Jordan Forms
Link NOC:Linear System Theory Lecture 15 - Linear Algebra - Eigen Decomposition and Singular Value Decomposition
Link NOC:Linear System Theory Lecture 16 - Tutorial 2 on Linear Algebra
Link NOC:Linear System Theory Lecture 17 - Solutions to LTI Systems
Link NOC:Linear System Theory Lecture 18 - State Transition Matrix for LTI systems
Link NOC:Linear System Theory Lecture 19 - Forced Reponse of Continuous and Discrete LTI system
Link NOC:Linear System Theory Lecture 20 - State Transition Matrix and Solutions to LTV systems
Link NOC:Linear System Theory Lecture 21 - Equilibrium Points
Link NOC:Linear System Theory Lecture 22 - Limit Cycles and Linearisation
Link NOC:Linear System Theory Lecture 23 - Stability Analysis and Types of Stability
Link NOC:Linear System Theory Lecture 24 - Lyapunov Stability
Link NOC:Linear System Theory Lecture 25 - Stability of Discrete Time Systems
Link NOC:Linear System Theory Lecture 26 - Supplementary Lecture: Comparison Lemma and Lyapunov Stabilty
Link NOC:Linear System Theory Lecture 27 - Controllability and Reachability
Link NOC:Linear System Theory Lecture 28 - Controllability Matrix and Controllable Systems
Link NOC:Linear System Theory Lecture 29 - Controllability Tests
Link NOC:Linear System Theory Lecture 30 - Controllability of Discrete Time Systems
Link NOC:Linear System Theory Lecture 31 - Controllable Decomposition
Link NOC:Linear System Theory Lecture 32 - Stabilizability
Link NOC:Linear System Theory Lecture 33 - Observability
Link NOC:Linear System Theory Lecture 34 - Gramians and Duality
Link NOC:Linear System Theory Lecture 35 - Observability for Discrete Time Systems and Observability Tests
Link NOC:Linear System Theory Lecture 36 - Observable Decompositon and Detectability
Link NOC:Linear System Theory Lecture 37 - Kalman Decomposition and Minimal Realisation
Link NOC:Linear System Theory Lecture 38 - Canonical Forms and State Feedback Control
Link NOC:Linear System Theory Lecture 39 - Control Design using Pole Placement
Link NOC:Linear System Theory Lecture 40 - Tutorial for Modules 9 and 10
Link NOC:Linear System Theory Lecture 41 - State Estimation and Output Feedback
Link NOC:Linear System Theory Lecture 42 - Design of Observer and Observer based Controller
Link NOC:Linear System Theory Lecture 43 - Optimal Control and Linear Quadratic Regulator (LQR)
Link NOC:Linear System Theory Lecture 44 - Feedback Invariant and Algebraic Ricatti Equation
Link NOC:Linear System Theory Lecture 45 - Tutorial for Module 11
Link NOC:Linear System Theory Lecture 46 - Linear Matrix Inequalities
Link NOC:Linear System Theory Lecture 47 - Properties of LMIs and Delay LMIs
Link NOC:Digital Signal Processing Lecture 1 - Signal Definition and Classification
Link NOC:Digital Signal Processing Lecture 2 - Affine Transform
Link NOC:Digital Signal Processing Lecture 3 - Recap of Affine Transform
Link NOC:Digital Signal Processing Lecture 4 - Even and Odd Parts of a Signal
Link NOC:Digital Signal Processing Lecture 5 - The Unit Step Sequence
Link NOC:Digital Signal Processing Lecture 6 - The Unit Impulse
Link NOC:Digital Signal Processing Lecture 7 - The Unit Impulse (Continued...)
Link NOC:Digital Signal Processing Lecture 8 - Exponential Signals and Sinusoids
Link NOC:Digital Signal Processing Lecture 9 - Sinusoids (Continued...)
Link NOC:Digital Signal Processing Lecture 10 - When are two sinusoids independent?
Link NOC:Digital Signal Processing Lecture 11 - Another Difference Between CT and DT Sinusoids
Link NOC:Digital Signal Processing Lecture 12 - System definition and properties (linearity)
Link NOC:Digital Signal Processing Lecture 13 - Time-invariance, memory, causality, and stability
Link NOC:Digital Signal Processing Lecture 14 - LTI systems, impulse response, and convolution
Link NOC:Digital Signal Processing Lecture 15 - Properties of convolution, system interconnections
Link NOC:Digital Signal Processing Lecture 16 - Java applet demo of convolution
Link NOC:Digital Signal Processing Lecture 17 - Systems governed by LCCDE
Link NOC:Digital Signal Processing Lecture 18 - FIR and IIR systems
Link NOC:Digital Signal Processing Lecture 19 - Karplus-Strong algorithm
Link NOC:Digital Signal Processing Lecture 20 - Z-transform definition and RoC
Link NOC:Digital Signal Processing Lecture 21 - Z-transform (Continued...)
Link NOC:Digital Signal Processing Lecture 22 - Poles and zeros
Link NOC:Digital Signal Processing Lecture 23 - Recursive implementation of FIR filters
Link NOC:Digital Signal Processing Lecture 24 - Convergence criterion
Link NOC:Digital Signal Processing Lecture 25 - Properties of the RoC
Link NOC:Digital Signal Processing Lecture 26 - DTFT definition and absolute summability
Link NOC:Digital Signal Processing Lecture 27 - Linearity
Link NOC:Digital Signal Processing Lecture 28 - Delay
Link NOC:Digital Signal Processing Lecture 29 - Exponential multiplication
Link NOC:Digital Signal Processing Lecture 30 - Complex conjugation
Link NOC:Digital Signal Processing Lecture 31 - Time reversal
Link NOC:Digital Signal Processing Lecture 32 - Differentiation in the Z-domain
Link NOC:Digital Signal Processing Lecture 33 - Convolution in the time domain
Link NOC:Digital Signal Processing Lecture 34 - Relationship between x[n] and X(1)
Link NOC:Digital Signal Processing Lecture 35 - Initial Value Theorem
Link NOC:Digital Signal Processing Lecture 36 - Final Value Theorem
Link NOC:Digital Signal Processing Lecture 37 - Multiplication in the time domain
Link NOC:Digital Signal Processing Lecture 38 - Parseval's Theorem
Link NOC:Digital Signal Processing Lecture 39 - Partial Fractions Method
Link NOC:Digital Signal Processing Lecture 40 - Power series method
Link NOC:Digital Signal Processing Lecture 41 - Contour Integral Method
Link NOC:Digital Signal Processing Lecture 42 - Contour Integral Method (Continued...)
Link NOC:Digital Signal Processing Lecture 43 - Inverse DTFT
Link NOC:Digital Signal Processing Lecture 44 - DTFT of Sequences that are not absolutely summable
Link NOC:Digital Signal Processing Lecture 45 - Response to cos(?_0 n+?)
Link NOC:Digital Signal Processing Lecture 46 - Causality and Stability
Link NOC:Digital Signal Processing Lecture 47 - Response to suddenly applied inputs
Link NOC:Digital Signal Processing Lecture 48 - Introduction to frequency response
Link NOC:Digital Signal Processing Lecture 49 - Magnitude response and its geometric interpretation
Link NOC:Digital Signal Processing Lecture 50 - Magnitude Response (Continued...)
Link NOC:Digital Signal Processing Lecture 51 - Response of a single complex zero/pole
Link NOC:Digital Signal Processing Lecture 52 - Resonator and Improved Resonator
Link NOC:Digital Signal Processing Lecture 53 - Notch filter
Link NOC:Digital Signal Processing Lecture 54 - Moving Average Filter
Link NOC:Digital Signal Processing Lecture 55 - Comb filter
Link NOC:Digital Signal Processing Lecture 56 - Phase response of a single complex zero
Link NOC:Digital Signal Processing Lecture 57 - Effect of crossing a unit circle zero, wrapped and unwrapped phase, resonator phase response
Link NOC:Digital Signal Processing Lecture 58 - Allpass Filter
Link NOC:Digital Signal Processing Lecture 59 - Group delay and its physical interpretation
Link NOC:Digital Signal Processing Lecture 60 - Zero-phase filtering, effect on nonlinear phase on waveshape
Link NOC:Digital Signal Processing Lecture 61 - Zero-Phase Filtering, Linear Phase - 1
Link NOC:Digital Signal Processing Lecture 62 - Linear Phase - 2
Link NOC:Digital Signal Processing Lecture 63 - Linear Phase - 3
Link NOC:Digital Signal Processing Lecture 64 - Linear Phase - 3
Link NOC:Digital Signal Processing Lecture 65 - Linear Phase - 3
Link NOC:Digital Signal Processing Lecture 66 - Linear Phase - 4, Sampling - 1
Link NOC:Digital Signal Processing Lecture 67 - Linear Phase - 4, Sampling - 1
Link NOC:Digital Signal Processing Lecture 68 - Linear Phase - 4, Sampling - 1
Link NOC:Digital Signal Processing Lecture 69 - Sampling - 2
Link NOC:Digital Signal Processing Lecture 70 - Sampling - 3
Link NOC:Digital Signal Processing Lecture 71 - Sampling - 4
Link NOC:Digital Signal Processing Lecture 72 - Sampling - 4
Link NOC:Digital Signal Processing Lecture 73 - Sampling - 4
Link NOC:Digital Signal Processing Lecture 74 - The Discrete Fourier Transform - 1
Link NOC:Digital Signal Processing Lecture 75 - The Discrete Fourier Transform - 1
Link NOC:Digital Signal Processing Lecture 76 - The Discrete Fourier Transform - 2
Link NOC:Digital Signal Processing Lecture 77 - The Discrete Fourier Transform - 3
Link NOC:Digital Signal Processing Lecture 78 - The Discrete Fourier Transform - 3
Link NOC:Digital Signal Processing Lecture 79 - The Discrete Fourier Transform - 3
Link NOC:Digital Signal Processing Lecture 80 - The Discrete Fourier Transform - 4
Link NOC:Digital Signal Processing Lecture 81 - The Discrete Fourier Transform - 4
Link NOC:Digital Signal Processing Lecture 82 - The Discrete Fourier Transform - 4
Link NOC:Computational Electromagnetics Lecture 1 - Chain rule of differentiation
Link NOC:Computational Electromagnetics Lecture 2 - Gradient, Divergence, and Curl operators
Link NOC:Computational Electromagnetics Lecture 3 - Common theorems in vector calculus
Link NOC:Computational Electromagnetics Lecture 4 - Corollaries of these theorems
Link NOC:Computational Electromagnetics Lecture 5 - Mathematical History
Link NOC:Computational Electromagnetics Lecture 6 - Different regimes of Maxwell's equations
Link NOC:Computational Electromagnetics Lecture 7 - Different ways of solving them
Link NOC:Computational Electromagnetics Lecture 8 - Maxwell's Equations
Link NOC:Computational Electromagnetics Lecture 9 - Boundary Conditions
Link NOC:Computational Electromagnetics Lecture 10 - Uniqueness Theorem
Link NOC:Computational Electromagnetics Lecture 11 - Equivalence Theorem
Link NOC:Computational Electromagnetics Lecture 12 - Simple Numerical Integration
Link NOC:Computational Electromagnetics Lecture 13 - Interpolating a Function
Link NOC:Computational Electromagnetics Lecture 14 - Gauss Quadrature
Link NOC:Computational Electromagnetics Lecture 15 - Line Charge Problem
Link NOC:Computational Electromagnetics Lecture 16 - Solving the Integral Equation
Link NOC:Computational Electromagnetics Lecture 17 - Basis Functions
Link NOC:Computational Electromagnetics Lecture 18 - Helmholtz Equation
Link NOC:Computational Electromagnetics Lecture 19 - Solving Helmholtz Equation
Link NOC:Computational Electromagnetics Lecture 20 - Huygen's principle and the Extinction theorem
Link NOC:Computational Electromagnetics Lecture 21 - Formulating the integral equations
Link NOC:Computational Electromagnetics Lecture 22 - Conclusions of surface integral equations
Link NOC:Computational Electromagnetics Lecture 23 - Motivations for Green's functions
Link NOC:Computational Electromagnetics Lecture 24 - A one-dimensional example
Link NOC:Computational Electromagnetics Lecture 25 - 1-D example: alternate representation
Link NOC:Computational Electromagnetics Lecture 26 - 2-D wave example : finding solution
Link NOC:Computational Electromagnetics Lecture 27 - 2-D wave example : boundary conds
Link NOC:Computational Electromagnetics Lecture 28 - 2-D example : Evaluating Constants - Part 1
Link NOC:Computational Electromagnetics Lecture 29 - 2-D example : Evaluating Constants - Part 2
Link NOC:Computational Electromagnetics Lecture 30 - 3-D example
Link NOC:Computational Electromagnetics Lecture 31 - Motivation for MoM
Link NOC:Computational Electromagnetics Lecture 32 - Linear Vector Spaces
Link NOC:Computational Electromagnetics Lecture 33 - Formulating Method of Moments
Link NOC:Computational Electromagnetics Lecture 34 - Surface Integral Equations: Recap
Link NOC:Computational Electromagnetics Lecture 35 - Surface Integral Equations: Evaluating the Integrals - Part 1
Link NOC:Computational Electromagnetics Lecture 36 - Surface Integral Equations: Evaluating the Integrals - Part 2
Link NOC:Computational Electromagnetics Lecture 37 - Surface Integral Equations: Conclusion
Link NOC:Computational Electromagnetics Lecture 38 - Volume Integral Equations:Setting Up
Link NOC:Computational Electromagnetics Lecture 39 - Volume Integral Equations:Solving - Part 1
Link NOC:Computational Electromagnetics Lecture 40 - Volume Integral Equations:Solving - Part 2
Link NOC:Computational Electromagnetics Lecture 41 - Volume Integral Equations:Summary
Link NOC:Computational Electromagnetics Lecture 42 - Surface integral equations for PEC
Link NOC:Computational Electromagnetics Lecture 43 - Surface v/s volume integral equations
Link NOC:Computational Electromagnetics Lecture 44 - Definition of radar cross-section
Link NOC:Computational Electromagnetics Lecture 45 - Computational Considerations
Link NOC:Computational Electromagnetics Lecture 46 - History and Overview of the FEM
Link NOC:Computational Electromagnetics Lecture 47 - Basic framework of FEM
Link NOC:Computational Electromagnetics Lecture 48 - 1D Basis Functions
Link NOC:Computational Electromagnetics Lecture 49 - 2D Basis Functions
Link NOC:Computational Electromagnetics Lecture 50 - Weak form of 1D-FEM - Part 1
Link NOC:Computational Electromagnetics Lecture 51 - Weak form of 1D-FEM - Part 2
Link NOC:Computational Electromagnetics Lecture 52 - Generating System of Equations for 1D FEM
Link NOC:Computational Electromagnetics Lecture 53 - 1D wave equation: Formulation
Link NOC:Computational Electromagnetics Lecture 54 - 1D Wave Equation: Boundary Conditions
Link NOC:Computational Electromagnetics Lecture 55 - 1D Wave Equation: Basis and testing functions
Link NOC:Computational Electromagnetics Lecture 56 - 1D Wave Equation: Matrix assembly
Link NOC:Computational Electromagnetics Lecture 57 - 2D FEM Shape Functions
Link NOC:Computational Electromagnetics Lecture 58 - Converting to Weak Form (2D FEM)
Link NOC:Computational Electromagnetics Lecture 59 - Radiation Boundary Condition
Link NOC:Computational Electromagnetics Lecture 60 - Total field formulation
Link NOC:Computational Electromagnetics Lecture 61 - Scattered field formulation
Link NOC:Computational Electromagnetics Lecture 62 - Comparing total and scattered field formulation
Link NOC:Computational Electromagnetics Lecture 63 - Matrix assembly - Part 1
Link NOC:Computational Electromagnetics Lecture 64 - Matrix assembly - Part 2
Link NOC:Computational Electromagnetics Lecture 65 - Computing Far Field
Link NOC:Computational Electromagnetics Lecture 66 - Numerical Aspects of 2D FEM
Link NOC:Computational Electromagnetics Lecture 67 - Summary of FEM Procedure
Link NOC:Computational Electromagnetics Lecture 68 - Introduction to FDTD
Link NOC:Computational Electromagnetics Lecture 69 - 2D FDTD Formulation : Stencil
Link NOC:Computational Electromagnetics Lecture 70 - 2D FDTD Formulation : Time Stepping
Link NOC:Computational Electromagnetics Lecture 71 - 2D FDTD Formulation : Divergence Conditions
Link NOC:Computational Electromagnetics Lecture 72 - Stability Criteria - Part 1
Link NOC:Computational Electromagnetics Lecture 73 - Stability Criteria - Part 2
Link NOC:Computational Electromagnetics Lecture 74 - Stability Criteria - Higher Dimensions
Link NOC:Computational Electromagnetics Lecture 75 - Accuracy Considerations - 1D
Link NOC:Computational Electromagnetics Lecture 76 - Accuracy Considerations - Higher Dimensions
Link NOC:Computational Electromagnetics Lecture 77 - Dealing with non-dispersive dielectric media
Link NOC:Computational Electromagnetics Lecture 78 - Dealing with dispersive dielectric media
Link NOC:Computational Electromagnetics Lecture 79 - Debye Model - Part 1
Link NOC:Computational Electromagnetics Lecture 80 - Debye Model - Part 2
Link NOC:Computational Electromagnetics Lecture 81 - Absorbing Boundary Conditions - 1D
Link NOC:Computational Electromagnetics Lecture 82 - Absorbing Boundary Conditions - 2D
Link NOC:Computational Electromagnetics Lecture 83 - Implementing ABC in FDTD
Link NOC:Computational Electromagnetics Lecture 84 - Failure of ABC
Link NOC:Computational Electromagnetics Lecture 85 - Perfectly Matched Layers (PML) - Introduction
Link NOC:Computational Electromagnetics Lecture 86 - Implementing PML using Coordinate Stretching
Link NOC:Computational Electromagnetics Lecture 87 - PML - Phase Matching
Link NOC:Computational Electromagnetics Lecture 88 - PML - Tangential Boundary Conditions
Link NOC:Computational Electromagnetics Lecture 89 - Perfectly Matched Interface
Link NOC:Computational Electromagnetics Lecture 90 - PML theory - Summary
Link NOC:Computational Electromagnetics Lecture 91 - Implementing PML into FDTD - Part 1
Link NOC:Computational Electromagnetics Lecture 92 - Implementing PML into FDTD - Part 2
Link NOC:Computational Electromagnetics Lecture 93 - Sources in FDTD - Currents
Link NOC:Computational Electromagnetics Lecture 94 - Sources in FDTD - Part 2
Link NOC:Computational Electromagnetics Lecture 95 - Summary of FDTD
Link NOC:Computational Electromagnetics Lecture 96 - MEEP : FDTD in action
Link NOC:Computational Electromagnetics Lecture 97 - Inverse Problems - Introduction
Link NOC:Computational Electromagnetics Lecture 98 - Inverse Problems - Mathematical Formulation
Link NOC:Computational Electromagnetics Lecture 99 - Inverse Problems - Challenges
Link NOC:Computational Electromagnetics Lecture 100 - Inverse Problems - Non-Linearity
Link NOC:Computational Electromagnetics Lecture 101 - Inverse Problems - Summary
Link NOC:Computational Electromagnetics Lecture 102 - Antennas - Potential formulation
Link NOC:Computational Electromagnetics Lecture 103 - Antennas - Hertz Dipole - Part 1
Link NOC:Computational Electromagnetics Lecture 104 - Antennas - Hertz Dipole - Part 2
Link NOC:Computational Electromagnetics Lecture 105 - Antennas - Radiation Patterns
Link NOC:Computational Electromagnetics Lecture 106 - Antennas - Motivation for CEM
Link NOC:Computational Electromagnetics Lecture 107 - Antennas - Pocklington’s Integral Equation - Part 1
Link NOC:Computational Electromagnetics Lecture 108 - Antennas - Pocklington’s Integral Equation - Part 2
Link NOC:Computational Electromagnetics Lecture 109 - Antennas - Source Modeling
Link NOC:Computational Electromagnetics Lecture 110 - Antennas - Circuit Model
Link NOC:Computational Electromagnetics Lecture 111 - Antennas - MoM details
Link NOC:Computational Electromagnetics Lecture 112 - Antennas - Mutual Coupling - Part 1
Link NOC:Computational Electromagnetics Lecture 113 - Antennas - Mutual Coupling - Part 2
Link NOC:Computational Electromagnetics Lecture 114 - Hybrid Methods - Motivation
Link NOC:Computational Electromagnetics Lecture 115 - Finite Element-Boundary Integral - Part 1
Link NOC:Computational Electromagnetics Lecture 116 - Finite Element-Boundary Integral - Part 2
Link NOC:Computational Electromagnetics Lecture 117 - Finite Element-Boundary Integral - Part 3
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 1 - Transmission lines
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 2 - LosslessTransmission lines: Wave Equations
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 3 - Introduction to finite difference method
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 4 - Octave simulation of wave equation
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 5 - Octave simulation of Telegrapher's equation
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 6 - Reflections and reflection coefficient
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 7 - AC signals in loss-less transmission lines
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 8 - Transmission lines with losses
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 9 - Octave simulation of Transmission lines with losses
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 10 - Voltage reflection coefficient and standing wave ratio
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 11 - Graphical representation of reflection coefficient
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 12 - Impedance matching using Smith chart
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 13 - Demonstration of Impedance matching using VNA
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 14 - Transmission Line Limitations and Maxwell's Equation
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 15 - Maxwell's Curl Equation
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 16 - Octave simulation of an Electromagnetic Wave Equation
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 17 - Polarisation of an Electromagnetic Wave
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 18 - Octave Simulation of different types of Polarisation
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 19 - Electromagnetic Waves in a conductive Medium
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 20 - Plane Waves
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 21 - Plane Waves at normal incidence
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 22 - Plane waves at Oblique Incidence - I
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 23 - Plane waves at Oblique Incidence - II
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 24 - Plane waves at Oblique Incidence - III
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 25 - Octave simulation of perpendicular polarisation
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 26 - Octave simulation of perpendicular polarisation (Continued...)
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 27 - Dielectric-ideal conductor interface
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 28 - Parallel plate waveguide
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 29 - Rectangular Waveguide
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 30 - Octave simulation of modes of a Rectangular Waveguide
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 31 - Phase Velocity and Group velocity
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 32 - Octave simulation of Field pattern of a parellel plate waveguide
Link NOC:Transmission Lines and Electromagnetic Waves Lecture 33 - Cavity resonatorand Real life applications of waveguides and cavity
Link NOC:Digital IC Design Lecture 1 - Introduction - Digital IC Design
Link NOC:Digital IC Design Lecture 2 - PN Junction
Link NOC:Digital IC Design Lecture 3 - MOS Capacitor Threshold Voltage
Link NOC:Digital IC Design Lecture 4 - MOS Transistor Current Expression
Link NOC:Digital IC Design Lecture 5 - Body Effect and I-V Plots
Link NOC:Digital IC Design Lecture 6 - Short Channel Transistors - Channel Length Modulation
Link NOC:Digital IC Design Lecture 7 - Velocity Saturation and Level-1 SPICE Model
Link NOC:Digital IC Design Lecture 8 - Drain Induced Barrier Lowering
Link NOC:Digital IC Design Lecture 9 - Sub-Threshold Leakage
Link NOC:Digital IC Design Lecture 10 - Substrate and Gate Leakage
Link NOC:Digital IC Design Lecture 11 - The PMOS Transistor
Link NOC:Digital IC Design Lecture 12 - Transistor Capacitance - 1
Link NOC:Digital IC Design Lecture 13 - Transistor Capacitance - 2
Link NOC:Digital IC Design Lecture 14 - CMOS Inverter Construction
Link NOC:Digital IC Design Lecture 15 - Voltage Transfer Characteristics
Link NOC:Digital IC Design Lecture 16 - Load Line Analysis
Link NOC:Digital IC Design Lecture 17 - Trip Point for Short Channel Device Inverter
Link NOC:Digital IC Design Lecture 18 - Trip Point for Long Channel Device Inverter
Link NOC:Digital IC Design Lecture 19 - Noise Margin Analysis - 1
Link NOC:Digital IC Design Lecture 20 - Noise Margin Analysis - 2
Link NOC:Digital IC Design Lecture 21 - Noise Margin Analysis - 3
Link NOC:Digital IC Design Lecture 22 - Noise Margin Analysis-Long Channel Device Inverter - 1
Link NOC:Digital IC Design Lecture 23 - Noise Margin Analysis-Long Channel Device Inverter - 2
Link NOC:Digital IC Design Lecture 24 - Pass Transistors
Link NOC:Digital IC Design Lecture 25 - NMOS Transistor ON Resistance and Fall Delay
Link NOC:Digital IC Design Lecture 26 - Elmore Delay Model
Link NOC:Digital IC Design Lecture 27 - Inverter: Transient Response
Link NOC:Digital IC Design Lecture 28 - Inverter: Dynamic Power
Link NOC:Digital IC Design Lecture 29 - Inverter: Short Circuit Power
Link NOC:Digital IC Design Lecture 30 - Inverter: Leakage Power and Transistor Stacks
Link NOC:Digital IC Design Lecture 31 - Stacking Effect and Sleep Transistors
Link NOC:Digital IC Design Lecture 32 - Ring Oscillators and Process Variations
Link NOC:Digital IC Design Lecture 33 - Implementing Any Boolean Logic Function
Link NOC:Digital IC Design Lecture 34 - Implementing Any Boolean Logic Function: Examples. Gate sizing
Link NOC:Digital IC Design Lecture 35 - Gate Sizing
Link NOC:Digital IC Design Lecture 36 - Logic Gate Capacitance
Link NOC:Digital IC Design Lecture 37 - Gate Delay
Link NOC:Digital IC Design Lecture 38 - Parasitic Delay
Link NOC:Digital IC Design Lecture 39 - Gate Delay with a Load Capacitance
Link NOC:Digital IC Design Lecture 40 - Logical Effort
Link NOC:Digital IC Design Lecture 41 - Gate Delay
Link NOC:Digital IC Design Lecture 42 - Path Delay Calculation and Optimization Formulation
Link NOC:Digital IC Design Lecture 43 - Path Delay Optimization: Intuition
Link NOC:Digital IC Design Lecture 44 - Path Delay Optimization: Example
Link NOC:Digital IC Design Lecture 45 - Buffer Insertion
Link NOC:Digital IC Design Lecture 46 - Input Ordering and Asymmetric Gates
Link NOC:Digital IC Design Lecture 47 - Skewed Gates
Link NOC:Digital IC Design Lecture 48 - Special Functions
Link NOC:Digital IC Design Lecture 49 - Pseudo NMOS Logic
Link NOC:Digital IC Design Lecture 50 - Pseudo NMOS Inverter
Link NOC:Digital IC Design Lecture 51 - Pseudo NMOS Logical Effort and CVSL
Link NOC:Digital IC Design Lecture 52 - Dynamic Circuits and Input Monotonicity
Link NOC:Digital IC Design Lecture 53 - Domino Logic and Weak Keepers
Link NOC:Digital IC Design Lecture 54 - Transmission Gate Logic
Link NOC:Digital IC Design Lecture 55 - Gate Sizing for Large Circuits
Link NOC:Digital IC Design Lecture 56 - Ripple Adder Introduction
Link NOC:Digital IC Design Lecture 57 - Full Adder Circuit Implementation
Link NOC:Digital IC Design Lecture 58 - Full Adder Optimization
Link NOC:Digital IC Design Lecture 59 - Carry Skip Adder
Link NOC:Digital IC Design Lecture 60 - Carry Select Adder
Link NOC:Digital IC Design Lecture 61 - Linear and Square Root Carry Select Adder
Link NOC:Digital IC Design Lecture 62 - Two's Complement Arithmetic
Link NOC:Digital IC Design Lecture 63 - Two's Complement Sign Extension
Link NOC:Digital IC Design Lecture 64 - Array Multiplier
Link NOC:Digital IC Design Lecture 65 - Array Multiplier - Timing Analysis
Link NOC:Digital IC Design Lecture 66 - Carry Save Multiplier
Link NOC:Digital IC Design Lecture 67 - Carry Save Multiplier - Signed Multiplication
Link NOC:Digital IC Design Lecture 68 - Introduction to Pipelining
Link NOC:Digital IC Design Lecture 69 - Time Borrowing
Link NOC:Digital IC Design Lecture 70 - Master Slave Flip Flop
Link NOC:Digital IC Design Lecture 71 - Flop Timing Parameters
Link NOC:Digital IC Design Lecture 72 - Alternate Circuit Implementations
Link NOC:Digital IC Design Lecture 73 - Clock Overlap
Link NOC:Digital IC Design Lecture 74 - C2MOS Flop
Link NOC:Digital IC Design Lecture 75 - Flop Characterization
Link NOC:Digital IC Design Lecture 76 - Max and Min Delay of Flop Based Systems
Link NOC:Digital IC Design Lecture 77 - Flop Min Delay Constraint
Link NOC:Digital IC Design Lecture 78 - Latch - Max and Min Delay Constraints
Link NOC:Digital IC Design Lecture 79 - Latch - Timing Analysis with Skew
Link NOC:Digital IC Design Lecture 80 - Time Borrowing
Link NOC:Power Management Integrated Circuits Lecture 1 - Introduction to PMIC - Part 1
Link NOC:Power Management Integrated Circuits Lecture 2 - Introduction to PMIC - Part 2
Link NOC:Power Management Integrated Circuits Lecture 3 - Linear versus Switching Regulators
Link NOC:Power Management Integrated Circuits Lecture 4 - Performance Parameters of Regulators
Link NOC:Power Management Integrated Circuits Lecture 5 - Local vs Remote Feedback, Point of Load Regulators
Link NOC:Power Management Integrated Circuits Lecture 6 - Kelvin Sensing, Droop Compensation
Link NOC:Power Management Integrated Circuits Lecture 7 - Current Regulator Applications, Introduction to Bandgap Voltage References, PTAT and CTAT voltage
Link NOC:Power Management Integrated Circuits Lecture 8 - Adding PTAT and CTAT Voltages
Link NOC:Power Management Integrated Circuits Lecture 9 - Bandgap Voltage Reference Circuit, Brokaw Bandgap Circuit
Link NOC:Power Management Integrated Circuits Lecture 10 - Sub-1-volt Bandgap Circuit
Link NOC:Power Management Integrated Circuits Lecture 11 - Generating Multiple Reference Voltages; Applications of Linear Regulators
Link NOC:Power Management Integrated Circuits Lecture 12 - Designing a Linear Regulator, Negative and Positive Feedback
Link NOC:Power Management Integrated Circuits Lecture 13 - First-Order Systems, Phase Margin
Link NOC:Power Management Integrated Circuits Lecture 14 - Closed-Loop Response of Second-Order Systems
Link NOC:Power Management Integrated Circuits Lecture 15 - Relationship between Damping Factor and Phase Margin, Frequency Compensation, MOS Parasitic Capacitances
Link NOC:Power Management Integrated Circuits Lecture 16 - Finding the Poles of the Error Amplifier - Part 1
Link NOC:Power Management Integrated Circuits Lecture 17 - Finding the Poles of the Error Amplifier - Part 2
Link NOC:Power Management Integrated Circuits Lecture 18 - Dominant Pole Frequency Compensation
Link NOC:Power Management Integrated Circuits Lecture 19 - Dominant Pole Compensation at No-Load
Link NOC:Power Management Integrated Circuits Lecture 20 - Dominant Pole Compensation using Miller Effect, RHP zero due to Miller Capacitor
Link NOC:Power Management Integrated Circuits Lecture 21 - Intuitive Method of Finding the Poles, Pole Splitting after Miller Compensation
Link NOC:Power Management Integrated Circuits Lecture 22 - Effect of RHP zero on Stability, Mitigating the Effect of RHP zero, LDO with NMOS Pass Element
Link NOC:Power Management Integrated Circuits Lecture 23 - Output Impedance of PMOS LDO
Link NOC:Power Management Integrated Circuits Lecture 24 - Line Regulation and PSRR of PMOS LDO
Link NOC:Power Management Integrated Circuits Lecture 25 - PSRR of PMOS versus PSRR of NMOS LDO
Link NOC:Power Management Integrated Circuits Lecture 26 - Sources of Error in Linear and Switching Regulators
Link NOC:Power Management Integrated Circuits Lecture 27 - Offset in Amplifiers; Real Life Analogy; Static Offset Cancellation
Link NOC:Power Management Integrated Circuits Lecture 28 - Dynamic Offset Cancellation Techniques (Chopping, Auto-zeroing)
Link NOC:Power Management Integrated Circuits Lecture 29 - Digital LDO, Technique to Avoid Limit Cycle Oscillations in Digital LDO
Link NOC:Power Management Integrated Circuits Lecture 30 - Hybrid LDO, Short-Circuit Protection
Link NOC:Power Management Integrated Circuits Lecture 31 - Hiccup Mode and Foldback Current Limit
Link NOC:Power Management Integrated Circuits Lecture 32 - Introduction to Switching Regulators
Link NOC:Power Management Integrated Circuits Lecture 33 - volt-second Balance, Non-Idealities in the Power Stage of a Buck Converter
Link NOC:Power Management Integrated Circuits Lecture 34 - Transformer Model of a Buck Converter, Conduction Efficiency, Efficiency of an LDO versus Efficiency of a Switching Regulator
Link NOC:Power Management Integrated Circuits Lecture 35 - Synchronous versus Non-Synchronous Switching Regulators, PWM Control Techniques
Link NOC:Power Management Integrated Circuits Lecture 36 - Losses in Switching Regulators (Conduction Loss, Gate-Driver Switching Loss)
Link NOC:Power Management Integrated Circuits Lecture 37 - Dead-Time Switching Loss in DC-DC Converters
Link NOC:Power Management Integrated Circuits Lecture 38 - Hard Switching Loss in DC DC Converters
Link NOC:Power Management Integrated Circuits Lecture 39 - Magnetic Loss in DC-DC Converters, Relative Significance of Losses as a Function of the Load Current
Link NOC:Power Management Integrated Circuits Lecture 40 - Output Voltage Ripple of a Buck Converter
Link NOC:Power Management Integrated Circuits Lecture 41 - Choosing the Inductor and Capacitor for a Buck Converter
Link NOC:Power Management Integrated Circuits Lecture 42 - CCM Vs DCM Operation in DC DC Converters
Link NOC:Power Management Integrated Circuits Lecture 43 - CCM DCM Boundary Condition, Voltage Conversion Ratio in DCM
Link NOC:Power Management Integrated Circuits Lecture 44 - Concept of Pulse Frequency Modulation PFM
Link NOC:Power Management Integrated Circuits Lecture 45 - Classification of Pulse Width Modulators
Link NOC:Power Management Integrated Circuits Lecture 46 - DC - DC Converter Control Techniques, Stability Analysis of Voltage Mode Buck Converter - Part 1
Link NOC:Power Management Integrated Circuits Lecture 47 - Stability Analysis of Voltage Mode Buck Converter - Part 2
Link NOC:Power Management Integrated Circuits Lecture 48 - Stability Analysis of Voltage Mode Buck Converter - Part 3
Link NOC:Power Management Integrated Circuits Lecture 49 - Dominant Pole Compensation (Type-I with Gm-C Architecture)
Link NOC:Power Management Integrated Circuits Lecture 50 - Dominant Pole Compensation (Type-I with Op Amp-RC Architecture)
Link NOC:Power Management Integrated Circuits Lecture 51 - Introduction to Type-II Compensation
Link NOC:Power Management Integrated Circuits Lecture 52 - Type-II Compensator using Gm-C Architecture - Part 1
Link NOC:Power Management Integrated Circuits Lecture 53 - Type-II Compensator using Gm-C Architecture - Part 2
Link NOC:Power Management Integrated Circuits Lecture 54 - Type-II Compensator using Gm-C Architecture - Part 3
Link NOC:Power Management Integrated Circuits Lecture 55 - Type-II Compensator using Op Amp-RC Architecture
Link NOC:Power Management Integrated Circuits Lecture 56 - Introduction to Type-III Compensator
Link NOC:Power Management Integrated Circuits Lecture 57 - Type-III Compensator using Op Amp-RC Architecture
Link NOC:Power Management Integrated Circuits Lecture 58 - Simulation of DC-DC Converter with Type-III Compensator
Link NOC:Power Management Integrated Circuits Lecture 59 - Type-III Compensator using Gm-C Architecture
Link NOC:Power Management Integrated Circuits Lecture 60 - Feed-Forward Line Compensation, Loop Gain Compensation by Modulating Gm
Link NOC:Power Management Integrated Circuits Lecture 61 - Designing a Buck Converter, Power Loss Budgeting
Link NOC:Power Management Integrated Circuits Lecture 62 - Sizing Power MOSFETs
Link NOC:Power Management Integrated Circuits Lecture 63 - Estimating Switching Losses and Choosing the Switching Frequency
Link NOC:Power Management Integrated Circuits Lecture 64 - Choosing Inductance and Capacitance Values
Link NOC:Power Management Integrated Circuits Lecture 65 - Choosing 'C' Depending on Factors that Limit the Load Transient Response
Link NOC:Power Management Integrated Circuits Lecture 66 - Inductor and Capacitor Characteristics, Reducing the Effect of Capacitor ESL
Link NOC:Power Management Integrated Circuits Lecture 67 - Gate Buffer and Non-Overlap Clock Generator in Gate-Driver Circuit
Link NOC:Power Management Integrated Circuits Lecture 68 - Pulse-Width Modulator- Trailing Edge, Leading Edge and Dual Edge; Triangle Wave Generator
Link NOC:Power Management Integrated Circuits Lecture 69 - Average Ramp Voltage of Single-Edge PW Modulator,Design Considerations of EA
Link NOC:Power Management Integrated Circuits Lecture 70 - Delays Associated with PW Modulator, PFM and PSM Operation, DCM Operation using NMOS
Link NOC:Power Management Integrated Circuits Lecture 71 - Designing a Zero-Cross Comparator, Inverter-Based Auto-Zeroed Comparator, Simulation Demo
Link NOC:Power Management Integrated Circuits Lecture 72 - Current Mode Control- Peak, Valley, Emulated; VMC versus CMC; Sub-Harmonic Oscillation
Link NOC:Power Management Integrated Circuits Lecture 73 - Ramp-Adaptive Slope Compensation to Avoid Current Loop Instability
Link NOC:Power Management Integrated Circuits Lecture 74 - Non-Linear Control of DC-DC Converters, Phase-Shift between i_L and v_C
Link NOC:Power Management Integrated Circuits Lecture 75 - Stabilising a Voltage-Mode Hysteretic Converter using R_esr, Relation between F_sw and the Hysteresis Window
Link NOC:Power Management Integrated Circuits Lecture 76 - Hysteretic Converter - Simulation Demo
Link NOC:Power Management Integrated Circuits Lecture 77 - Current-Mode Hysteretic Converter, Using R-C as Ripple Generator
Link NOC:Power Management Integrated Circuits Lecture 78 - Controlling the Switching Frequency of a Hysteretic Converter, Delay in the Hysteretic Comparator
Link NOC:Power Management Integrated Circuits Lecture 79 - Frequency and Voltage Regulation Loops in a Fixed-Frequency Hysteretic Converter
Link NOC:Power Management Integrated Circuits Lecture 80 - Resetting the Capacitor Voltage in a Hysteretic Converter, Constant ON-Time Control
Link NOC:Power Management Integrated Circuits Lecture 81 - Introduction to Boost Converter, RHP Zero in a Boost Converter
Link NOC:Power Management Integrated Circuits Lecture 82 - Introduction to Buck-Boost Converter
Link NOC:Power Management Integrated Circuits Lecture 83 - Tri-Mode Buck-Boost Converter (Buck, Buck-Boost and Boost)
Link NOC:Power Management Integrated Circuits Lecture 84 - Boundary Conditions for Mode Transition in a Tri-Mode Buck-Boost Converter
Link NOC:Power Management Integrated Circuits Lecture 85 - Generating Buck and Boost Duty Cycles in a Tri-Mode Buck-Boost Converter
Link NOC:Power Management Integrated Circuits Lecture 86 - Introduction to Switched-Capacitor DC-DC Converters,Switched-Capacitor DC-DC Converter with V_o = 2*V_DD
Link NOC:Power Management Integrated Circuits Lecture 87 - Applications of Switched-Capacitor DC-DC Converters in Open-Loop, Regulating the Output using Feedback Control
Link NOC:Power Management Integrated Circuits Lecture 88 - H-Bridge Switched-Capacitor DC-DC Converter,SC DC-DC converter with Multiple Gain Settings
Link NOC:Power Management Integrated Circuits Lecture 89 - Current Sensing Techniques in DC-DC Converters
Link NOC:Power Management Integrated Circuits Lecture 90 - Analog Layout Techniques - Part 1
Link NOC:Power Management Integrated Circuits Lecture 91 - Analog Layout Techniques - Part 2
Link NOC:Power Management Integrated Circuits Lecture 92 - Digital Control of DC-DC Converters, ADC Architectures
Link NOC:Power Management Integrated Circuits Lecture 93 - Digital Pulse-Width Modulator Architectures, Adaptive Compensation
Link NOC:Power Management Integrated Circuits Lecture 94 - Limitations of Analog and Digital Controllers, Time-Based Controller for Buck Converter
Link NOC:Power Management Integrated Circuits Lecture 95 - Time-Based Controller for Buck Converter and for LDO, Issues with Time-Based Control
Link NOC:Power Management Integrated Circuits Lecture 96 - Multi-Phase DC-DC Converters
Link NOC:Power Management Integrated Circuits Lecture 97 - Dynamic Voltage and Frequency Scaling, Single Inductor Multiple Output (SIMO) DC-DC Converter
Link NOC:Power Management Integrated Circuits Lecture 98 - LCD/AMOLED Display Drivers - Part 1
Link NOC:Power Management Integrated Circuits Lecture 99 - LCD/AMOLED Display Drivers - Part 2
Link NOC:Power Management Integrated Circuits Lecture 100 - LCD/AMOLED Display Drivers - Part 3
Link NOC:Power Management Integrated Circuits Lecture 101 - LED Drivers for Camera Flash
Link NOC:Power Management Integrated Circuits Lecture 102 - Li-Ion Battery and its Charging Phases
Link NOC:Power Management Integrated Circuits Lecture 103 - Battery Charger IC
Link NOC:DC Power Transmission Systems Lecture 1 - Course contents
Link NOC:DC Power Transmission Systems Lecture 2 - Introduction
Link NOC:DC Power Transmission Systems Lecture 3 - Historical developments
Link NOC:DC Power Transmission Systems Lecture 4 - Power semiconductor devices
Link NOC:DC Power Transmission Systems Lecture 5 - General converter configuration
Link NOC:DC Power Transmission Systems Lecture 6 - Choice of converter configuration: Valve utilization factor
Link NOC:DC Power Transmission Systems Lecture 7 - Choice of converter configuration: Transformer utilization factor
Link NOC:DC Power Transmission Systems Lecture 8 - Converter configuration for pulse number equal to 6
Link NOC:DC Power Transmission Systems Lecture 9 - Analysis of 6 pulse LCC neglecting inductance
Link NOC:DC Power Transmission Systems Lecture 10 - Analysis of 6 pulse LCC neglecting inductance: Jumps in voltage across a valve
Link NOC:DC Power Transmission Systems Lecture 11 - Analysis of 6 pulse LCC neglecting inductance: Average DC side voltage
Link NOC:DC Power Transmission Systems Lecture 12 - Fourier series - Part 1
Link NOC:DC Power Transmission Systems Lecture 13 - Fourier series - Part 2
Link NOC:DC Power Transmission Systems Lecture 14 - Analysis of 6 pulse LCC neglecting inductance: DC side voltage harmonics
Link NOC:DC Power Transmission Systems Lecture 15 - Analysis of 6 pulse LCC neglecting inductance: Fundamental and harmonic components of AC side current
Link NOC:DC Power Transmission Systems Lecture 16 - Definitions: Delay angle, angle of advance, commutation margin angle
Link NOC:DC Power Transmission Systems Lecture 17 - Commutation margin angle in a 6 pulse LCC neglecting inductance - Part 1
Link NOC:DC Power Transmission Systems Lecture 18 - Commutation margin angle in a 6 pulse LCC neglecting inductance - Part 2
Link NOC:DC Power Transmission Systems Lecture 19 - Instantaneous power on AC and DC sides in a 6 pulse LCC neglecting inductance
Link NOC:DC Power Transmission Systems Lecture 20 - Average power on AC and DC sides in a 6 pulse LCC neglecting inductance
Link NOC:DC Power Transmission Systems Lecture 21 - 6 pulse LCC with inductance
Link NOC:DC Power Transmission Systems Lecture 22 - 2 and 3 valve conduction mode of 6 pulse LCC
Link NOC:DC Power Transmission Systems Lecture 23 - 2 and 3 valve conduction mode of 6 pulse LCC: DC side voltage harmonics
Link NOC:DC Power Transmission Systems Lecture 24 - 2 and 3 valve conduction mode of 6 pulse LCC: DC side voltage and voltage across a valve
Link NOC:DC Power Transmission Systems Lecture 25 - 2 and 3 valve conduction mode of 6 pulse LCC: Fundamental and harmonic components of AC side current
Link NOC:DC Power Transmission Systems Lecture 26 - Extinction angle
Link NOC:DC Power Transmission Systems Lecture 27 - Extinction angle: Commutation margin angle for normal inverter operation of 6 pulse LCC
Link NOC:DC Power Transmission Systems Lecture 28 - 3 and 4 valve conduction mode of 6 pulse LCC
Link NOC:DC Power Transmission Systems Lecture 29 - Analysis of 3 and 4 valve conduction mode of 6 pulse LCC - Part 1
Link NOC:DC Power Transmission Systems Lecture 30 - Analysis of 3 and 4 valve conduction mode of 6 pulse LCC - Part 2
Link NOC:DC Power Transmission Systems Lecture 31 - Analysis of 3 and 4 valve conduction mode of 6 pulse LCC - Part 3
Link NOC:DC Power Transmission Systems Lecture 32 - 3 valve conduction mode of 6 pulse LCC
Link NOC:DC Power Transmission Systems Lecture 33 - Commutation margin angle
Link NOC:DC Power Transmission Systems Lecture 34 - Normalization
Link NOC:DC Power Transmission Systems Lecture 35 - Characteristics of 6 pulse LCC - Part 1
Link NOC:DC Power Transmission Systems Lecture 36 - Characteristics of 6 pulse LCC - Part 2
Link NOC:DC Power Transmission Systems Lecture 37 - Steady state analysis of a general LCC - Part 1
Link NOC:DC Power Transmission Systems Lecture 38 - Steady state analysis of a general LCC - Part 2
Link NOC:DC Power Transmission Systems Lecture 39 - Steady state analysis of a general LCC - Application to 6 pulse LCC
Link NOC:DC Power Transmission Systems Lecture 40 - 6 pulse LCC with resistance included on the AC side
Link NOC:DC Power Transmission Systems Lecture 41 - 6 pulse LCC with resistance, inductance and voltage source on the DC side - Part 1
Link NOC:DC Power Transmission Systems Lecture 42 - 6 pulse LCC with resistance, inductance and voltage source on the DC side - Part 2
Link NOC:DC Power Transmission Systems Lecture 43 - Power factor
Link NOC:DC Power Transmission Systems Lecture 44 - Capacitor commutated converter - Part 1
Link NOC:DC Power Transmission Systems Lecture 45 - Capacitor commutated converter - Part 2
Link NOC:DC Power Transmission Systems Lecture 46 - 12 pulse LCC - Part 1
Link NOC:DC Power Transmission Systems Lecture 47 - 12 pulse LCC - Part 2
Link NOC:DC Power Transmission Systems Lecture 48 - Modes of operation of 12 pulse LCC
Link NOC:DC Power Transmission Systems Lecture 49 - Purposes of transformer
Link NOC:DC Power Transmission Systems Lecture 50 - Applications of DC transmission
Link NOC:DC Power Transmission Systems Lecture 51 - Types of DC link: Monopolar
Link NOC:DC Power Transmission Systems Lecture 52 - Types of DC link: Bipolar and homopolar
Link NOC:DC Power Transmission Systems Lecture 53 - DC link control
Link NOC:DC Power Transmission Systems Lecture 54 - DC link control: Control variables
Link NOC:DC Power Transmission Systems Lecture 55 - Considerations that influence selection of control
Link NOC:DC Power Transmission Systems Lecture 56 - Converter control characteristics
Link NOC:DC Power Transmission Systems Lecture 57 - MTDC systens: Applications
Link NOC:DC Power Transmission Systems Lecture 58 - Types of MTDC systems
Link NOC:DC Power Transmission Systems Lecture 59 - Non-characteristic harmonics
Link NOC:DC Power Transmission Systems Lecture 60 - Effect of firing angle errors
Link NOC:DC Power Transmission Systems Lecture 61 - Problems with harmonics
Link NOC:DC Power Transmission Systems Lecture 62 - Single tuned filter
Link NOC:DC Power Transmission Systems Lecture 63 - Design of single tuned filter - Part 1
Link NOC:DC Power Transmission Systems Lecture 64 - Design of single tuned filter - Part 2
Link NOC:DC Power Transmission Systems Lecture 65 - Double tuned and damped filters
Link NOC:DC Power Transmission Systems Lecture 66 - Reactive power requirement
Link NOC:DC Power Transmission Systems Lecture 67 - Comparison of AC and DC transmission
Link NOC:Optical Engineering Lecture 1 - Introduction to Optical Engineering
Link NOC:Optical Engineering Lecture 2 - Geometric Optics Basics
Link NOC:Optical Engineering Lecture 3 - Refraction at a single surface
Link NOC:Optical Engineering Lecture 4 - Lab 1 Introduction to OSLO
Link NOC:Optical Engineering Lecture 5 - Stops and Rays
Link NOC:Optical Engineering Lecture 6 - Aperture stop - Part 1
Link NOC:Optical Engineering Lecture 7 - Aperture stop - Part 2
Link NOC:Optical Engineering Lecture 8 - Lab 2 OSLO
Link NOC:Optical Engineering Lecture 9 - Imaging equation for thick lens using ABCD matrix
Link NOC:Optical Engineering Lecture 10 - Ray Tracing Matrix - Part 1
Link NOC:Optical Engineering Lecture 11 - Ray Tracing Matrix - Part 2
Link NOC:Optical Engineering Lecture 12 - Principal Planes
Link NOC:Optical Engineering Lecture 13 - Lab 3 OSLO
Link NOC:Optical Engineering Lecture 14 - Tracing rays through optical pupils - Part 1
Link NOC:Optical Engineering Lecture 15 - Tracing rays through optical pupils - Part 2
Link NOC:Optical Engineering Lecture 16 - Aberrations
Link NOC:Optical Engineering Lecture 17 - Monochromatic Aberrations - Part 1
Link NOC:Optical Engineering Lecture 18 - Monochromatic Aberrations - Part 2
Link NOC:Optical Engineering Lecture 19 - Lab 4 - OSLO
Link NOC:Optical Engineering Lecture 20 - Chromatic Aberrations and Aberration correction
Link NOC:Optical Engineering Lecture 21 - Aberration correction
Link NOC:Optical Engineering Lecture 22 - Revisiting Ray intercept curves
Link NOC:Optical Engineering Lecture 23 - Lab 5 - OSLO
Link NOC:Optical Engineering Lecture 24 - Interesting Geometric phenomena and applications
Link NOC:Optical Engineering Lecture 25 - Gaussian beams introduction
Link NOC:Optical Engineering Lecture 26 - Gaussian beams
Link NOC:Optical Engineering Lecture 27 - Lab 6 - OSLO
Link NOC:Optical Engineering Lecture 28 - ransformation of a Gaussian beam
Link NOC:Optical Engineering Lecture 29 - Transformation of a Gaussian beam due to a lens and a mirror
Link NOC:Optical Engineering Lecture 30 - Application of Gaussian beam equations
Link NOC:Optical Engineering Lecture 31 - Interferometry basics
Link NOC:Optical Engineering Lecture 32 - Interferometry basics - Part 1
Link NOC:Optical Engineering Lecture 33 - Introduction to Python
Link NOC:Optical Engineering Lecture 34 - Python - Part 2
Link NOC:Optical Engineering Lecture 35 - Introduction to Matlab
Link NOC:Optical Engineering Lecture 36 - Interferometry basics - Part 2
Link NOC:Optical Engineering Lecture 37 - Python - Part 3
Link NOC:Optical Engineering Lecture 38 - Matlab tutorial on interference
Link NOC:Optical Engineering Lecture 39 - Applications of interference - Part 1
Link NOC:Optical Engineering Lecture 40 - Holography
Link NOC:Optical Engineering Lecture 41 - Applications of interference
Link NOC:Optical Engineering Lecture 42 - Applications of Optical Engineering
Link NOC:Optical Engineering Lecture 43 - Diffractive Optics
Link NOC:Optical Engineering Lecture 44 - Diffraction Grating
Link NOC:Nonlinear System Analysis Lecture 1 - Examples of Nonlinear Physical Systems
Link NOC:Nonlinear System Analysis Lecture 2 - Math Preliminaries - Part 1
Link NOC:Nonlinear System Analysis Lecture 3 - Math Preliminaries - Part 2
Link NOC:Nonlinear System Analysis Lecture 4 - Math Preliminaries - Part 3
Link NOC:Nonlinear System Analysis Lecture 5 - Lipschitz Continuity and Contraction Mapping Theorem - Part 1
Link NOC:Nonlinear System Analysis Lecture 6 - Lipschitz Continuity and Contraction Mapping Theorem - Part 2
Link NOC:Nonlinear System Analysis Lecture 7 - Lipschitz Continuity and Contraction Mapping Theorem - Part 3
Link NOC:Nonlinear System Analysis Lecture 8 - Existence and Uniqueness Theorem of ODE - Part 1
Link NOC:Nonlinear System Analysis Lecture 9 - Existence and Uniqueness Theorem of ODE - Part 2
Link NOC:Nonlinear System Analysis Lecture 10 - Existence and Uniqueness Theorem of ODE - Part 3
Link NOC:Nonlinear System Analysis Lecture 11 - Existence and Uniqueness Theorem of ODE - Part 4
Link NOC:Nonlinear System Analysis Lecture 12 - Equilibrium Points
Link NOC:Nonlinear System Analysis Lecture 13 - Phase Portrait - Part 1
Link NOC:Nonlinear System Analysis Lecture 14 - Phase Portrait - Part 2
Link NOC:Nonlinear System Analysis Lecture 15 - Phase Portrait - Part 3
Link NOC:Nonlinear System Analysis Lecture 16 - Phase portrait of Nonlinear Systems: Examples
Link NOC:Nonlinear System Analysis Lecture 17 - Limit Cycles
Link NOC:Nonlinear System Analysis Lecture 18 - Limit Cycles - Examples - Part 1
Link NOC:Nonlinear System Analysis Lecture 19 - Limit Cycles - Examples - Part 2
Link NOC:Nonlinear System Analysis Lecture 20 - Introduction to Bifurcation Theory - 1
Link NOC:Nonlinear System Analysis Lecture 21 - Introduction to Bifurcation Theory - 2
Link NOC:Nonlinear System Analysis Lecture 22 - Necessary and Sufficient Conditions for Local Bifurcation
Link NOC:Nonlinear System Analysis Lecture 23 - Problems on Bifurcation Theory.
Link NOC:Nonlinear System Analysis Lecture 24 - Stability Notions: Lyapunov and LaSalle's theorem - Part 1
Link NOC:Nonlinear System Analysis Lecture 25 - Stability Notions: Lyapunov and LaSalle's theorem - Part 2
Link NOC:Nonlinear System Analysis Lecture 26 - Stability Notions: Lyapunov and LaSalle's theorem - Part 3
Link NOC:Nonlinear System Analysis Lecture 27 - Stability Notions: Lyapunov and LaSalle's theorem - Part 4
Link NOC:Nonlinear System Analysis Lecture 28 - Stability Analysis and types of stability
Link NOC:Nonlinear System Analysis Lecture 29 - Lypaunov Stability
Link NOC:Nonlinear System Analysis Lecture 30 - Supplementary lecture: Comparison Lemma and Lyapunov Stability
Link NOC:Nonlinear System Analysis Lecture 31 - Center Manifold Theorem
Link NOC:Nonlinear System Analysis Lecture 32 - Interconnection between non linearity and a linear system - Sector Nonlinearities And Aizermann’s conjecture
Link NOC:Nonlinear System Analysis Lecture 33 - Counter example for Aizermann’s conjecture
Link NOC:Nonlinear System Analysis Lecture 34 - Passivity inspiration - passive circuits - dissipation equality
Link NOC:Nonlinear System Analysis Lecture 35 - Dissipative Equality for circuit (Continued...)
Link NOC:Nonlinear System Analysis Lecture 36 - PR condition for passivity of SISO system
Link NOC:Nonlinear System Analysis Lecture 37 - Examples of PR transfer functions
Link NOC:Nonlinear System Analysis Lecture 38 - Relation between storage function and Lyapunov function - PR Lemma
Link NOC:Nonlinear System Analysis Lecture 39 - Proof of PR Lemma
Link NOC:Nonlinear System Analysis Lecture 40 - Proof (Continued...) using spectral factorization theorem
Link NOC:Nonlinear System Analysis Lecture 41 - PR definition for MIMO case
Link NOC:Nonlinear System Analysis Lecture 42 - PSD Storage function in PR Lemma and how to make it PD (strictly PR)
Link NOC:Nonlinear System Analysis Lecture 43 - KYP Theorem
Link NOC:Nonlinear System Analysis Lecture 44 - Passivity preservation under interconnection
Link NOC:Nonlinear System Analysis Lecture 45 - Aizermann’s conjecture under passivity assumption is true
Link NOC:Nonlinear System Analysis Lecture 46 - Sector Nonlinearities and need for generlaizing KYP Lemma
Link NOC:Nonlinear System Analysis Lecture 47 - Need for Loop transformations
Link NOC:Nonlinear System Analysis Lecture 48 - Loop Transformations - Part 1
Link NOC:Nonlinear System Analysis Lecture 49 - Loop Transformations - Part 2
Link NOC:Nonlinear System Analysis Lecture 50 - Circle criterion for PR
Link NOC:Nonlinear System Analysis Lecture 51 - Examples based on circle criterion and stability under circle transformations
Link NOC:Signals and Systems Lecture 1 - Real and Complex Number
Link NOC:Signals and Systems Lecture 2 - Sinusoid and Phasor
Link NOC:Signals and Systems Lecture 3 - Limits and Continuity
Link NOC:Signals and Systems Lecture 4 - Differentiation and Integration
Link NOC:Signals and Systems Lecture 5 - L’Hospital’s Rule
Link NOC:Signals and Systems Lecture 6 - LTI System Examples; Impedance
Link NOC:Signals and Systems Lecture 7 - Dirac Delta function; Impulse
Link NOC:Signals and Systems Lecture 8 - Continuous and Discrete Time Systems
Link NOC:Signals and Systems Lecture 9 - Even Signal; Odd Signal
Link NOC:Signals and Systems Lecture 10 - Orthogonality of Signals
Link NOC:Signals and Systems Lecture 11 - Shifting and Scaling in Continuous Time - I
Link NOC:Signals and Systems Lecture 12 - Shifting and Scaling in Continuous Time - II
Link NOC:Signals and Systems Lecture 13 - Shifting and Scaling in Discrete Time
Link NOC:Signals and Systems Lecture 14 - Signal and Noise
Link NOC:Signals and Systems Lecture 15 - Signals in the Physical World
Link NOC:Signals and Systems Lecture 16 - Signals and Sensory Perception
Link NOC:Signals and Systems Lecture 17 - Frequency Domain Representation
Link NOC:Signals and Systems Lecture 18 - Definition of Fourier Transform
Link NOC:Signals and Systems Lecture 19 - Fourier Transform : Examples I
Link NOC:Signals and Systems Lecture 20 - Dirichlet Conditions
Link NOC:Signals and Systems Lecture 21 - Inverse Fourier Transform
Link NOC:Signals and Systems Lecture 22 - Fourier Transform : Examples II
Link NOC:Signals and Systems Lecture 23 - Frequency-Time Uncertainty Relation
Link NOC:Signals and Systems Lecture 24 - Fourier Transform : Linearity, Time Shifting and Time Scaling
Link NOC:Signals and Systems Lecture 25 - Fourier Transform : Derivative Property
Link NOC:Signals and Systems Lecture 26 - Fourier Transform : Multiplication and Convolution Property
Link NOC:Signals and Systems Lecture 27 - Fourier Transform : Integral Property
Link NOC:Signals and Systems Lecture 28 - Fourier Transform : Example III
Link NOC:Signals and Systems Lecture 29 - Fourier Transform : Example IV
Link NOC:Signals and Systems Lecture 30 - Fourier Transform of Noise
Link NOC:Signals and Systems Lecture 31 - Types of Noise
Link NOC:Signals and Systems Lecture 32 - Overview of Systems and General Properties
Link NOC:Signals and Systems Lecture 33 - Linearity and Time Invariance
Link NOC:Signals and Systems Lecture 34 - LTI System Examples
Link NOC:Signals and Systems Lecture 35 - Frequency Response of RLC circuits - I
Link NOC:Signals and Systems Lecture 36 - Frequency Response of RLC circuits - II
Link NOC:Signals and Systems Lecture 37 - LCCDE Representation of Continuous-Time LTI Systems
Link NOC:Signals and Systems Lecture 38 - Frequency Domain Representation of LCCDE Systems
Link NOC:Signals and Systems Lecture 39 - Time Domain Representation of LTI Systems
Link NOC:Signals and Systems Lecture 40 - Continuous-Time Convolution Integral
Link NOC:Signals and Systems Lecture 41 - Continuous-Time Convolution : Example I
Link NOC:Signals and Systems Lecture 42 - Continuous-Time Convolution : Example II
Link NOC:Signals and Systems Lecture 43 - Continuous-Time Convolution : Example III
Link NOC:Signals and Systems Lecture 44 - LTI Systems : Commutative, Distributive and Associative
Link NOC:Signals and Systems Lecture 45 - LTI Systems : Memorylessness and Invertibility
Link NOC:Signals and Systems Lecture 46 - LTI Systems : Causality and Stability
Link NOC:Signals and Systems Lecture 47 - Fourier Transform in Complex Frequency Domain
Link NOC:Signals and Systems Lecture 48 - Laplace Transform : Poles and Zeros
Link NOC:Signals and Systems Lecture 49 - Laplace Transform : Region of Convergence [ROC]
Link NOC:Signals and Systems Lecture 50 - Laplace Transform : Examples I
Link NOC:Signals and Systems Lecture 51 - Laplace Transform : Examples II
Link NOC:Signals and Systems Lecture 52 - Laplace Analysis of LTI Systems
Link NOC:Signals and Systems Lecture 53 - Laplace Analysis of RLC Circuits - I
Link NOC:Signals and Systems Lecture 54 - Laplace Transform : Linearity, Shifting and Scaling
Link NOC:Signals and Systems Lecture 55 - Laplace Transform : Derivative and Integral
Link NOC:Signals and Systems Lecture 56 - Laplace Transform : Causality and Stability
Link NOC:Signals and Systems Lecture 57 - Laplace Analysis of LTI Systems : Example I
Link NOC:Signals and Systems Lecture 58 - Laplace Analysis of LTI Systems : Example II
Link NOC:Signals and Systems Lecture 59 - Laplace Analysis of First Order RLC Circuits
Link NOC:Signals and Systems Lecture 60 - Laplace Analysis of Second Order RLC Circuits
Link NOC:Signals and Systems Lecture 61 - Fourier Transform of Periodic Signals
Link NOC:Signals and Systems Lecture 62 - Fourier Series Representation in Continuous-Time
Link NOC:Signals and Systems Lecture 63 - Fourier Series Properties - I
Link NOC:Signals and Systems Lecture 64 - Fourier Series Properties - II
Link NOC:Signals and Systems Lecture 65 - LTI System Response for Periodic Input Signal
Link NOC:Signals and Systems Lecture 66 - Fourier Series in Continuous-Time : Examples I
Link NOC:Signals and Systems Lecture 67 - Fourier Series in Continuous-Time : Examples II
Link NOC:Signals and Systems Lecture 68 - Discrete-Time Convolution Sum
Link NOC:Signals and Systems Lecture 69 - Discrete-Time Convolution Sum Examples and Properties
Link NOC:Signals and Systems Lecture 70 - LCCDE Representation of Discrete-Time LTI Systems
Link NOC:Signals and Systems Lecture 71 - Impulse Train Sampling
Link NOC:Signals and Systems Lecture 72 - Reconstruction of Continuous-Time Signal
Link NOC:Signals and Systems Lecture 73 - Nyquist Sampling Theorem and Aliasing
Link NOC:Signals and Systems Lecture 74 - Fourier Transform of Sampled Signals
Link NOC:Signals and Systems Lecture 75 - DTFT : Examples I
Link NOC:Signals and Systems Lecture 76 - DTFT Properties I: Periodicity, Linearity, Time/Frequency shifting, and Conjugation
Link NOC:Signals and Systems Lecture 77 - DTFT Properties II: Differencing and Accumulation in Time Domain, Differentiation in Frequency Domain
Link NOC:Signals and Systems Lecture 78 - DTFT Properties III: Time Reversal, Time Expansion, Convolution and Parsevaal’s Relation
Link NOC:Signals and Systems Lecture 79 - DTFT : Examples II
Link NOC:Signals and Systems Lecture 80 - DTFT in Complex Frequency Domain
Link NOC:Signals and Systems Lecture 81 - Z-Transform : Properties of ROC
Link NOC:Signals and Systems Lecture 82 - Z-Transform Properties I: Linearity, Time-Shifting, Time-Expansion, Time-Reversal, and Z-Scaling
Link NOC:Signals and Systems Lecture 83 - Z-Transform Properties II: Conjugation and Convolution
Link NOC:Signals and Systems Lecture 84 - Z-Transform Properties III: Causality and Stability
Link NOC:Signals and Systems Lecture 85 - Z-Transform : Examples I
Link NOC:Signals and Systems Lecture 86 - Z-Transform : Examples II
Link NOC:Signals and Systems Lecture 87 - Block Diagram Representation
Link NOC:Linear Dynamical Systems Lecture 1 - Response and state-space solution of Linear systems
Link NOC:Linear Dynamical Systems Lecture 2 - Solution of LTV systems
Link NOC:Linear Dynamical Systems Lecture 3 - Solution of LTI systems
Link NOC:Linear Dynamical Systems Lecture 4 - Equivalent State Equations
Link NOC:Linear Dynamical Systems Lecture 5 - Realization of LTI and LTV Systems
Link NOC:Linear Dynamical Systems Lecture 6 - Tutorial - 1
Link NOC:Linear Dynamical Systems Lecture 7 - Introduction to Stability Analysis
Link NOC:Linear Dynamical Systems Lecture 8 - Lyapunov Stability - Part I
Link NOC:Linear Dynamical Systems Lecture 9 - Lyapunov Stability - Part II
Link NOC:Linear Dynamical Systems Lecture 10 - Proof of lyapunov stability theorem
Link NOC:Linear Dynamical Systems Lecture 11 - BIBO vs Lyapunov Stability
Link NOC:Linear Dynamical Systems Lecture 12 - BIBO vs Lyapunov Stability
Link NOC:Linear Dynamical Systems Lecture 13 - Tutorial - 2
Link NOC:Linear Dynamical Systems Lecture 14 - Introduction to Controllability
Link NOC:Linear Dynamical Systems Lecture 15 - Reachability and Controllability Gramians
Link NOC:Linear Dynamical Systems Lecture 16 - Controllability Matrix
Link NOC:Linear Dynamical Systems Lecture 17 - Discrete-time Reachability and Controllability Gramians
Link NOC:Linear Dynamical Systems Lecture 18 - Tests for controllability - I
Link NOC:Linear Dynamical Systems Lecture 19 - Tests for controllability - II
Link NOC:Linear Dynamical Systems Lecture 20 - Tutorial - 3
Link NOC:Linear Dynamical Systems Lecture 21 - Tests for controllability - III
Link NOC:Linear Dynamical Systems Lecture 22 - Tests for controllability - IV
Link NOC:Linear Dynamical Systems Lecture 23 - Controllable Decomposition - I
Link NOC:Linear Dynamical Systems Lecture 24 - Stabilizable Systems
Link NOC:Linear Dynamical Systems Lecture 25 - Tests for Stabilizability
Link NOC:Linear Dynamical Systems Lecture 26 - Tutorial - 4
Link NOC:Linear Dynamical Systems Lecture 27 - State Feeback - I
Link NOC:Linear Dynamical Systems Lecture 28 - State Feeback - II
Link NOC:Linear Dynamical Systems Lecture 29 - Lyapunov Method of State Feedback Design
Link NOC:Linear Dynamical Systems Lecture 30 - Regulation and Tracking
Link NOC:Linear Dynamical Systems Lecture 31 - Tutorial - 5
Link NOC:Linear Dynamical Systems Lecture 32 - Robust Tracking and Disturbance Rejection
Link NOC:Linear Dynamical Systems Lecture 33 - State Feedback design for Multi-input systems
Link NOC:Linear Dynamical Systems Lecture 34 - Linear Quadratic Regulator
Link NOC:Linear Dynamical Systems Lecture 35 - Tutorial - 6
Link NOC:Linear Dynamical Systems Lecture 36 - Output feedback and observability
Link NOC:Linear Dynamical Systems Lecture 37 - Duality and Observability tests
Link NOC:Linear Dynamical Systems Lecture 38 - Decompostions and Detectability
Link NOC:Linear Dynamical Systems Lecture 39 - Minimal Realisations
Link NOC:Linear Dynamical Systems Lecture 40 - Observer Design and Output Feedback
Link NOC:Linear Dynamical Systems Lecture 41 - Observer Design and Output Feedback
Link NOC:Linear Dynamical Systems Lecture 42 - UIO
Link NOC:Linear Dynamical Systems Lecture 43 - Tutorial - 7 and 8 (combined)
Link NOC:A brief Introduction of Micro-Sensors Lecture 1 - Introduction to Microscale Sensors or MEMS
Link NOC:A brief Introduction of Micro-Sensors Lecture 2 - Scaling effect
Link NOC:A brief Introduction of Micro-Sensors Lecture 3 - Some Simple Mechanics
Link NOC:A brief Introduction of Micro-Sensors Lecture 4 - Basic Mechanics - Part 1
Link NOC:A brief Introduction of Micro-Sensors Lecture 5 - Basic Mechanics - Part 2
Link NOC:A brief Introduction of Micro-Sensors Lecture 6 - Basic Mechanics - Part 3
Link NOC:A brief Introduction of Micro-Sensors Lecture 7 - Electrostatics
Link NOC:A brief Introduction of Micro-Sensors Lecture 8 - Electrostatic force
Link NOC:A brief Introduction of Micro-Sensors Lecture 9 - Coupled electromechanics
Link NOC:A brief Introduction of Micro-Sensors Lecture 10 - Stiction
Link NOC:A brief Introduction of Micro-Sensors Lecture 11 - Si crystal structure
Link NOC:A brief Introduction of Micro-Sensors Lecture 12 - Si etching
Link NOC:A brief Introduction of Micro-Sensors Lecture 13 - KOH etching
Link NOC:A brief Introduction of Micro-Sensors Lecture 14 - TMAH etching
Link NOC:A brief Introduction of Micro-Sensors Lecture 15 - Deposition and Lithography
Link NOC:A brief Introduction of Micro-Sensors Lecture 16 - Lithography
Link NOC:A brief Introduction of Micro-Sensors Lecture 17 - Pressure sensor types, membrane, Piezoelectric sensing, capacitive sensing
Link NOC:A brief Introduction of Micro-Sensors Lecture 18 - Pressure Sensor - II
Link NOC:A brief Introduction of Micro-Sensors Lecture 19 - Pressure Sensor - III
Link NOC:A brief Introduction of Micro-Sensors Lecture 20 - Accelerometer - I
Link NOC:A brief Introduction of Micro-Sensors Lecture 21 - Accelerometer - II
Link NOC:A brief Introduction of Micro-Sensors Lecture 22 - Assignment 1
Link NOC:A brief Introduction of Micro-Sensors Lecture 23 - Assignment 2
Link NOC:Fiber Optic Communication Technology Lecture 1 - Introduction to FOCT: Prerequisites, Course Content and Learning Outcomes
Link NOC:Fiber Optic Communication Technology Lecture 2 - Communication through the ages
Link NOC:Fiber Optic Communication Technology Lecture 3 - Communication: Basics - 1
Link NOC:Fiber Optic Communication Technology Lecture 4 - Communication: Basics - 2
Link NOC:Fiber Optic Communication Technology Lecture 5 - Digital Communication for Optical Communication
Link NOC:Fiber Optic Communication Technology Lecture 6 - Digital modulation: Basics - 2
Link NOC:Fiber Optic Communication Technology Lecture 7 - Digital modulation: Basics - 3
Link NOC:Fiber Optic Communication Technology Lecture 8 - Optical communication system
Link NOC:Fiber Optic Communication Technology Lecture 9 - Assignment Discussion - Week 1
Link NOC:Fiber Optic Communication Technology Lecture 10 - Optical Sources
Link NOC:Fiber Optic Communication Technology Lecture 11 - Semiconductor gain media- structure, spectrum
Link NOC:Fiber Optic Communication Technology Lecture 12 - Optical sources: LED
Link NOC:Fiber Optic Communication Technology Lecture 13 - External Quantum Efficiency
Link NOC:Fiber Optic Communication Technology Lecture 14 - Modulation Bandwidth of LED
Link NOC:Fiber Optic Communication Technology Lecture 15 - Optical and Electrical Bandwidth of LED
Link NOC:Fiber Optic Communication Technology Lecture 16 - Emission Pattern of LED
Link NOC:Fiber Optic Communication Technology Lecture 17 - Optical Sources: Laser Diodes over LEDs
Link NOC:Fiber Optic Communication Technology Lecture 18 - Laser Diodes: Resonator Concepts 1a
Link NOC:Fiber Optic Communication Technology Lecture 19 - Laser Diodes: Resonator Concepts 1b
Link NOC:Fiber Optic Communication Technology Lecture 20 - Laser Diodes: Resonator Concepts 1c
Link NOC:Fiber Optic Communication Technology Lecture 21 - Assignment Discussion - Week 2
Link NOC:Fiber Optic Communication Technology Lecture 22 - Laser Diodes: Gain Coefficient
Link NOC:Fiber Optic Communication Technology Lecture 23 - Laser Diodes: Photon life time
Link NOC:Fiber Optic Communication Technology Lecture 24 - Laser rate equation: Steady State solution1
Link NOC:Fiber Optic Communication Technology Lecture 25 - Laser rate equation: LI Chara
Link NOC:Fiber Optic Communication Technology Lecture 26 - Laser power derivation
Link NOC:Fiber Optic Communication Technology Lecture 27 - Modulation Response of Laser - 1
Link NOC:Fiber Optic Communication Technology Lecture 28 - Modulation Response of Laser - 2
Link NOC:Fiber Optic Communication Technology Lecture 29 - Modulation Response of Laser - 3
Link NOC:Fiber Optic Communication Technology Lecture 30 - Setbacks of direct modulation of laser: Modulation Chirp
Link NOC:Fiber Optic Communication Technology Lecture 31 - Setbacks of direct modulation of laser: Transcient Chirp
Link NOC:Fiber Optic Communication Technology Lecture 32 - Assignment Discussion - Week 3
Link NOC:Fiber Optic Communication Technology Lecture 33 - Recap of direction modulation consequences
Link NOC:Fiber Optic Communication Technology Lecture 34 - Noise in Lasers
Link NOC:Fiber Optic Communication Technology Lecture 35 - Relative Intensity Noise
Link NOC:Fiber Optic Communication Technology Lecture 36 - Laser Phase Noise - 1
Link NOC:Fiber Optic Communication Technology Lecture 37 - Laser Phase Noise - 2
Link NOC:Fiber Optic Communication Technology Lecture 38 - Effect of Laser Phase Noise: A case study
Link NOC:Fiber Optic Communication Technology Lecture 39 - Electro-optic phase modulation
Link NOC:Fiber Optic Communication Technology Lecture 40 - Electro-optic intensity modulator
Link NOC:Fiber Optic Communication Technology Lecture 41 - Biasing of MZM: BPSK Generation
Link NOC:Fiber Optic Communication Technology Lecture 42 - Biasing of MZM: QPSK and 16 QAM Generation
Link NOC:Fiber Optic Communication Technology Lecture 43 - Line coding schemes and their bandwidth requirements
Link NOC:Fiber Optic Communication Technology Lecture 44 - Assignment Discussion - Week 4
Link NOC:Fiber Optic Communication Technology Lecture 45 - Introduction to optical Fiber
Link NOC:Fiber Optic Communication Technology Lecture 46 - Attenuation in optical fibers
Link NOC:Fiber Optic Communication Technology Lecture 47 - Fiber Modes
Link NOC:Fiber Optic Communication Technology Lecture 48 - Modes of a step index fiber - 1
Link NOC:Fiber Optic Communication Technology Lecture 49 - Modes of a step index fiber - 2
Link NOC:Fiber Optic Communication Technology Lecture 50 - Modes of a step index fiber - 3
Link NOC:Fiber Optic Communication Technology Lecture 51 - Modes of a step index fiber - 4
Link NOC:Fiber Optic Communication Technology Lecture 52 - Modes of a step index fiber - 5
Link NOC:Fiber Optic Communication Technology Lecture 53 - Modes and Cut-off conditions
Link NOC:Fiber Optic Communication Technology Lecture 54 - Universal b-V curves
Link NOC:Fiber Optic Communication Technology Lecture 55 - Modal Profiles in step index fiber
Link NOC:Fiber Optic Communication Technology Lecture 56 - Mode Field Diameter
Link NOC:Fiber Optic Communication Technology Lecture 57 - Dispersion- Intermodal dispersion derivation
Link NOC:Fiber Optic Communication Technology Lecture 58 - Dispersion-Bit rate distance Product
Link NOC:Fiber Optic Communication Technology Lecture 59 - Phase Velocity and Group Velocity - 1
Link NOC:Fiber Optic Communication Technology Lecture 60 - Phase Velocity and Group Velocity - 2
Link NOC:Fiber Optic Communication Technology Lecture 61 - Material dispersion
Link NOC:Fiber Optic Communication Technology Lecture 62 - Waveguide dispersion
Link NOC:Fiber Optic Communication Technology Lecture 63 - Total Dispersion in optical fiber
Link NOC:Fiber Optic Communication Technology Lecture 64 - Polarization mode dispersion
Link NOC:Fiber Optic Communication Technology Lecture 65 - Photodetectors concepts
Link NOC:Fiber Optic Communication Technology Lecture 66 - p-n and p-i-n Photodetectors
Link NOC:Fiber Optic Communication Technology Lecture 67 - Avalance Photodetector
Link NOC:Fiber Optic Communication Technology Lecture 68 - Direct detection receiver and sources of noise
Link NOC:Fiber Optic Communication Technology Lecture 69 - Quantifying noises in direct detection receivers
Link NOC:Fiber Optic Communication Technology Lecture 70 - SNR and Operation Regimes
Link NOC:Fiber Optic Communication Technology Lecture 71 - Noise Equivalent power and SNR in APDs
Link NOC:Fiber Optic Communication Technology Lecture 72 - Coherent Receivers
Link NOC:Fiber Optic Communication Technology Lecture 73 - SNR analysis of coherent receivers
Link NOC:Fiber Optic Communication Technology Lecture 74 - Performance Evaluation - 1
Link NOC:Fiber Optic Communication Technology Lecture 75 - Performance Evaluation - 2
Link NOC:Fiber Optic Communication Technology Lecture 76 - Performance Metrics: BER,Q, and Receiver Sensitivity
Link NOC:Fiber Optic Communication Technology Lecture 77 - Performance Metrics:Q and SNR
Link NOC:Fiber Optic Communication Technology Lecture 78 - Quantum limit of photodetection
Link NOC:Fiber Optic Communication Technology Lecture 79 - Optical Amplifier
Link NOC:Fiber Optic Communication Technology Lecture 80 - Erbium doped fiber amplifier - 1
Link NOC:Fiber Optic Communication Technology Lecture 81 - Erbium doped fiber amplifier - 2
Link NOC:Fiber Optic Communication Technology Lecture 82 - Erbium doped fiber amplifier - 3
Link NOC:Fiber Optic Communication Technology Lecture 83 - Erbium doped fiber amplifier - 4
Link NOC:Fiber Optic Communication Technology Lecture 84 - Link Design - Rise Time Budget
Link NOC:Fiber Optic Communication Technology Lecture 85 - Link Design - Case Study
Link NOC:Fiber Optic Communication Technology Lecture 86 - Link Design - Passive Optical Network and long haul link
Link NOC:Fiber Optic Communication Technology Lecture 87 - Dispersion - Recap
Link NOC:Fiber Optic Communication Technology Lecture 88 - Dispersion Compensation - Pulse Propagation with disperison
Link NOC:Fiber Optic Communication Technology Lecture 89 - Pulse propagation - 2
Link NOC:Fiber Optic Communication Technology Lecture 90 - Dispersion Compensation - Dispersion Transfer Function
Link NOC:Fiber Optic Communication Technology Lecture 91 - Dispersion Compensation - Case Study
Link NOC:Fiber Optic Communication Technology Lecture 92 - Dispersion COmpensation - WDM and DSP
Link NOC:Fiber Optic Communication Technology Lecture 93 - Nonlinear Effects- Nonlinear refractive Index
Link NOC:Fiber Optic Communication Technology Lecture 94 - Self Phase Modulation
Link NOC:Fiber Optic Communication Technology Lecture 95 - Cross Phase Modulation
Link NOC:Fiber Optic Communication Technology Lecture 96 - Scattering Processes in optical fibers
Link NOC:Fiber Optic Communication Technology Lecture 97 - Stimulated Brillouin Scattering
Link NOC:Fiber Optic Communication Technology Lecture 98 - Stimulated Raman Scattering
Link NOC:Fiber Optic Communication Technology Lecture 99 - Components - Directional Couplers
Link NOC:Fiber Optic Communication Technology Lecture 100 - Components - VOA, Polariser, Polarisation Controllers
Link NOC:Fiber Optic Communication Technology Lecture 101 - Components - Isolator
Link NOC:Fiber Optic Communication Technology Lecture 102 - Components - Circulator, Definitions
Link NOC:Fiber Optic Communication Technology Lecture 103 - Components - Wavelength filters
Link NOC:Fiber Optic Communication Technology Lecture 104 - Components - Arrayed Waveguide Gratings, WSS
Link NOC:Fiber Optic Communication Technology Lecture 105 - Balanced Detection
Link NOC:Fiber Optic Communication Technology Lecture 106 - Polarisation Diverse Coherent Receiver
Link NOC:Fiber Optic Communication Technology Lecture 107 - Phase and Polarisation Diverse Coherent Reciever
Link NOC:Fiber Optic Communication Technology Lecture 108 - Overview of impairments in coherent optical communication
Link NOC:Fiber Optic Communication Technology Lecture 109 - Transceiver impairments - Generation and Compensation
Link NOC:Fiber Optic Communication Technology Lecture 110 - Channel Impairments - Generation and Compensation
Link NOC:Fiber Optic Communication Technology Lecture 111 - Demo video
Link NOC:Fiber Optic Communication Technology Lecture 112 - Introduction to Optical Networks
Link NOC:Fiber Optic Communication Technology Lecture 113 - Layers of Optical Network
Link NOC:Fiber Optic Communication Technology Lecture 114 - SDH/SONET Layering, Frame Structure
Link NOC:Fiber Optic Communication Technology Lecture 115 - Physical Networks Topologies
Link NOC:Fiber Optic Communication Technology Lecture 116 - Topology specific Link Design
Link NOC:Fiber Optic Communication Technology Lecture 117 - Network Protection
Link NOC:Fiber Optic Communication Technology Lecture 118 - Access Networks- PON
Link NOC:Fiber Optic Communication Technology Lecture 119 - Optical Interconnects, Data Centers
Link NOC:Fiber Optic Communication Technology Lecture 120 - Optical communication for Wireless Fronthauling
Link NOC:Image Signal Processing Lecture 1 - Course Introduction
Link NOC:Image Signal Processing Lecture 2 - Applications of Image processing
Link NOC:Image Signal Processing Lecture 3 - Applications of Image processing (Continued...)
Link NOC:Image Signal Processing Lecture 4 - Basics of Images
Link NOC:Image Signal Processing Lecture 5 - Shot Noise
Link NOC:Image Signal Processing Lecture 6 - Geometric Transformations
Link NOC:Image Signal Processing Lecture 7 - Geometric Transformations (Continued...)
Link NOC:Image Signal Processing Lecture 8 - Bilinear Interpolation
Link NOC:Image Signal Processing Lecture 9 - Geometric Transformations (Continued...)
Link NOC:Image Signal Processing Lecture 10 - Projective Transformation
Link NOC:Image Signal Processing Lecture 11 - Homography
Link NOC:Image Signal Processing Lecture 12 - Homography - Special cases
Link NOC:Image Signal Processing Lecture 13 - Computing Homography
Link NOC:Image Signal Processing Lecture 14 - RANSAC
Link NOC:Image Signal Processing Lecture 15 - Rotational Homography
Link NOC:Image Signal Processing Lecture 16 - Research Challenges
Link NOC:Image Signal Processing Lecture 17 - Real Aperture Camera
Link NOC:Image Signal Processing Lecture 18 - Real aperture camera - Introduction
Link NOC:Image Signal Processing Lecture 19 - Cricle of confusion
Link NOC:Image Signal Processing Lecture 20 - Depth of field, Linearity
Link NOC:Image Signal Processing Lecture 21 - Space-Invariance
Link NOC:Image Signal Processing Lecture 22 - 2D Convolution
Link NOC:Image Signal Processing Lecture 23 - 2D Convolution
Link NOC:Image Signal Processing Lecture 24 - Blur Models
Link NOC:Image Signal Processing Lecture 25 - Space-variant Blurring
Link NOC:Image Signal Processing Lecture 26 - Shape from X - Introduction
Link NOC:Image Signal Processing Lecture 27 - 2-View Stereo
Link NOC:Image Signal Processing Lecture 28 - Introduction to Shape from Focus
Link NOC:Image Signal Processing Lecture 29 - SFF Principle
Link NOC:Image Signal Processing Lecture 30 - Shape from focus - Gaussian fitting
Link NOC:Image Signal Processing Lecture 31 - Shape from focus - Focus operators
Link NOC:Image Signal Processing Lecture 32 - Shape from Focus - Examples
Link NOC:Image Signal Processing Lecture 33 - Shape from Focus - Tensor Voting
Link NOC:Image Signal Processing Lecture 34 - DFD Principle
Link NOC:Image Signal Processing Lecture 35 - Motion Blur
Link NOC:Image Signal Processing Lecture 36 - Image Transforms - Introduction
Link NOC:Image Signal Processing Lecture 37 - Image Transforms - Motivation
Link NOC:Image Signal Processing Lecture 38 - 1D Unitary Transforms - Introduction
Link NOC:Image Signal Processing Lecture 39 - Extending 1D Unitary Transform to 2D - Motivation
Link NOC:Image Signal Processing Lecture 40 - Extending 1D Unitary Transform to 2D - Example
Link NOC:Image Signal Processing Lecture 41 - Alternative Forms of 2D
Link NOC:Image Signal Processing Lecture 42 - Kronecker Product
Link NOC:Image Signal Processing Lecture 43 - Kronecker Product - (Example Revisited)
Link NOC:Image Signal Processing Lecture 44 - Extending 1D Unitary Transform to 2D - Summary
Link NOC:Image Signal Processing Lecture 45 - 1D DFT to 2D DFT
Link NOC:Image Signal Processing Lecture 46 - 2D DFT Visualization
Link NOC:Image Signal Processing Lecture 47 - 2D DFT - Computation
Link NOC:Image Signal Processing Lecture 48 - 1D DCT - Definition, Motivation
Link NOC:Image Signal Processing Lecture 49 - Relation to DFT
Link NOC:Image Signal Processing Lecture 50 - 2D DCT and Walsh-Haddamard Transform
Link NOC:Image Signal Processing Lecture 51 - Data Dependent Transforms, Karhunen Loeve Transform
Link NOC:Image Signal Processing Lecture 52 - Karhunen-Loeve Transform (KLT) - Concept
Link NOC:Image Signal Processing Lecture 53 - Karhunen-Loeve Transform (KLT) - Applications
Link NOC:Image Signal Processing Lecture 54 - Karhunen-Loeve Transform (KLT) - Applications
Link NOC:Image Signal Processing Lecture 55 - Singular Value Decomposition (SVD)
Link NOC:Image Signal Processing Lecture 56 - Applications of SVD
Link NOC:Image Signal Processing Lecture 57 - Change detection
Link NOC:Image Signal Processing Lecture 58 - Image Thresholding
Link NOC:Image Signal Processing Lecture 59 - Adaptive Local thresholding - Motivation
Link NOC:Image Signal Processing Lecture 60 - Chow-Kaneko Local thresholding
Link NOC:Image Signal Processing Lecture 61 - K-Means Method
Link NOC:Image Signal Processing Lecture 62 - ISODATA Method
Link NOC:Image Signal Processing Lecture 63 - Theory of Histogram Equalization and Modification
Link NOC:Image Signal Processing Lecture 64 - Histogram Equalization example
Link NOC:Image Signal Processing Lecture 65 - Image sequence and Single image filtering in Gaussian noise
Link NOC:Image Signal Processing Lecture 66 - Non-local Means Method
Link NOC:Image Signal Processing Lecture 67 - Non-local Means Filtering (Examples)
Link NOC:Image Signal Processing Lecture 68 - Impulse Noise Generator
Link NOC:Image Signal Processing Lecture 69 - Impulse noise filtering
Link NOC:Image Signal Processing Lecture 70 - Transform Domain Filtering
Link NOC:Image Signal Processing Lecture 71 - Illumination Handling
Link NOC:Image Signal Processing Lecture 72 - Applications of Restoration, and Image Deblurring
Link NOC:Image Signal Processing Lecture 73 - Haddamard's conditions and Least squares solution
Link NOC:Image Signal Processing Lecture 74 - Min-norm solution and Norm of Linear operator
Link NOC:Image Signal Processing Lecture 75 - Numerical stability analysis
Link NOC:Image Signal Processing Lecture 76 - Image Deblurring
Link NOC:Image Signal Processing Lecture 77 - Tikhonov-Miller Regularization
Link NOC:Image Signal Processing Lecture 78 - Conditional Mean as an Estimator
Link NOC:Image Signal Processing Lecture 79 - Linear Estimator
Link NOC:Image Signal Processing Lecture 80 - Wiener Filter
Link NOC:Image Signal Processing Lecture 81 - Fourier Wiener Filter
Link NOC:Image Signal Processing Lecture 82 - 1D Superresolution
Link NOC:Image Signal Processing Lecture 83 - Superresolution Examples
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 1 - Overview of Electric Vehicles in India
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 2 - Can India Drive its EV program Innovatively and Differently and scale? - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 3 - Can India Drive its EV program Innovatively and Differently and scale? - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 4 - A bit about batteries
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 5 - Charging and Swapping Infrastructure
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 6 - Where will we get Lithium for batteries?
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 7 - EV Subsystems
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 8 - Forces acting when a vehicle move
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 9 - Aerodynamic drag, Rolling Resistance and Uphill Resistance
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 10 - Power and Torque to accelerate
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 11 - Putting it all together - 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 12 - Putting it all together - 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 13 - Concept of Drive Cycle - 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 14 - Concept of Drive Cycle - 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 15 - Drive Cycles and Energy used per km - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 16 - Drive Cycles and Energy used per km - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 17 - EV Subsystem: Design of EV Drive Train - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 18 - EV Subsystem: Design of EV Drive Train - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 19 - Introduction to Battery Parameters - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 20 - Introduction to Battery Parameters - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 21 - Why Lithium Ion Battery? - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 22 - Why Lithium Ion Battery? - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 23 - Batteries in Future
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 24 - Li-Ion Battery Cells
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 25 - SoH and SoC estimation and Self Discharge - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 26 - SoH and SoC estimation and Self Discharge - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 27 - Battery Pack Development - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 28 - Battery Pack Development - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 29 - Computation of Effective cost of battery - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 30 - Computation of Effective cost of battery - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 31 - Charging Batteries
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 32 - Fundamentals of Battery Pack Design
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 33 - Mechanical Design - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 34 - Mechanical Design - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 35 - Mechanical Design - Part 3
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 36 - Mechanical Design - Part 4
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 37 - Thermal Design - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 38 - Thermal Design - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 39 - Thermal Design - Part 3
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 40 - Thermal Design - Part 4
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 41 - Electrical Design - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 42 - Electrical Design - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 43 - Electrical Design - Part 3
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 44 - BMS Design of Electic Vehicle - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 45 - BMS Design of Electic Vehicle - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 46 - BMS Design of Electic Vehicle - Part 3
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 47 - EV Motors and Controllers - Understanding Flow - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 48 - EV Motors and Controllers - Understanding Flow - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 49 - Power and Efficiency
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 50 - Torque Production - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 51 - Torque Production - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 52 - Torque Production - Part 3
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 53 - Speed and Back EMF
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 54 - The d-q Equivalent circuit - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 55 - The d-q Equivalent circuit - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 56 - Field-oriented Control
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 57 - Three phase AC - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 58 - Three phase AC - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 59 - Thermal Design - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 60 - Thermal Design - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 61 - Engineering Considerations - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 62 - Engineering Considerations - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 63 - Future Frontiers
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 64 - EV Chargers: Introduction
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 65 - EV Chargers: Slow or Fast - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 66 - EV Chargers: Slow or Fast - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 67 - Battery Swapping
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 68 - Standardization and On board Chargers
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 69 - Public Chargers - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 70 - Public Chargers - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 71 - Bulk Chargers/Swap Stations - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 72 - Bulk Chargers/Swap Stations - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 73 - Economics of Public Chargers in context
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 74 - Analytics - Part 1
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 75 - Analytics - Part 2
Link NOC:Fundamentals of Electric Vehicles: Technology and Economics Lecture 76 - Course Summary
Link NOC:Applied Linear Algebra Lecture 1 - Introduction to the Course
Link NOC:Applied Linear Algebra Lecture 2 - Vector Spaces: Introduction
Link NOC:Applied Linear Algebra Lecture 3 - Linear Combinations and Span
Link NOC:Applied Linear Algebra Lecture 4 - Subspaces, Linear Dependence and Independence
Link NOC:Applied Linear Algebra Lecture 5 - Basis and Dimension
Link NOC:Applied Linear Algebra Lecture 6 - Sums, Direct Sums and Gaussian Elimination
Link NOC:Applied Linear Algebra Lecture 7 - Linear Maps and Matrices
Link NOC:Applied Linear Algebra Lecture 8 - Null space, Range, Fundamental theorem of linear maps
Link NOC:Applied Linear Algebra Lecture 9 - Column space, null space and rank of a matrix
Link NOC:Applied Linear Algebra Lecture 10 - Algebraic operations on linear maps
Link NOC:Applied Linear Algebra Lecture 11 - Invertible maps, Isomorphism, Operators
Link NOC:Applied Linear Algebra Lecture 12 - Solving Linear Equations
Link NOC:Applied Linear Algebra Lecture 13 - Elementary Row Operations
Link NOC:Applied Linear Algebra Lecture 14 - Translates of a subspace, Quotient Spaces
Link NOC:Applied Linear Algebra Lecture 15 - Row space and rank of a matrix
Link NOC:Applied Linear Algebra Lecture 16 - Determinants
Link NOC:Applied Linear Algebra Lecture 17 - Coordinates and linear maps under a change of basis
Link NOC:Applied Linear Algebra Lecture 18 - Simplifying matrices of linear maps by choice of basis
Link NOC:Applied Linear Algebra Lecture 19 - Polynomials and Roots
Link NOC:Applied Linear Algebra Lecture 20 - Invariant subspaces, Eigenvalues, Eigenvectors
Link NOC:Applied Linear Algebra Lecture 21 - More on Eigenvalues, Eigenvectors, Diagonalization
Link NOC:Applied Linear Algebra Lecture 22 - Eigenvalues, Eigenvectors and Upper Triangularization
Link NOC:Applied Linear Algebra Lecture 23 - Properties of Eigenvalues
Link NOC:Applied Linear Algebra Lecture 24 - Linear state space equations and system stability
Link NOC:Applied Linear Algebra Lecture 25 - Discrete-time Linear Systems and Discrete Fourier Transforms
Link NOC:Applied Linear Algebra Lecture 26 - Sequences and counting paths in graphs
Link NOC:Applied Linear Algebra Lecture 27 - PageRank Algorithm
Link NOC:Applied Linear Algebra Lecture 28 - Dot product and length in Cn, Inner product and norm in V over F
Link NOC:Applied Linear Algebra Lecture 29 - Orthonormal basis and Gram-Schmidt orthogonalisation
Link NOC:Applied Linear Algebra Lecture 30 - Linear Functionals, Orthogonal Complements
Link NOC:Applied Linear Algebra Lecture 31 - Orthogonal Projection
Link NOC:Applied Linear Algebra Lecture 32 - Projection and distance from a subspace
Link NOC:Applied Linear Algebra Lecture 33 - Linear equations, Least squares solutions and Linear regression
Link NOC:Applied Linear Algebra Lecture 34 - Minimum Mean Squared Error Estimation
Link NOC:Applied Linear Algebra Lecture 35 - Adjoint of a linear map
Link NOC:Applied Linear Algebra Lecture 36 - Properties of Adjoint of a Linear Map
Link NOC:Applied Linear Algebra Lecture 37 - Adjoint of an Operator and Operator-Adjoint Product
Link NOC:Applied Linear Algebra Lecture 38 - Self-adjoint Operator
Link NOC:Applied Linear Algebra Lecture 39 - Normal Operators
Link NOC:Applied Linear Algebra Lecture 40 - Complex Spectral Theorem
Link NOC:Applied Linear Algebra Lecture 41 - Real Spectral Theorem
Link NOC:Applied Linear Algebra Lecture 42 - Positive Operators
Link NOC:Applied Linear Algebra Lecture 43 - Quadratic Forms, Matrix Norms and Optimization
Link NOC:Applied Linear Algebra Lecture 44 - Isometries
Link NOC:Applied Linear Algebra Lecture 45 - Classification of Operators
Link NOC:Applied Linear Algebra Lecture 46 - Singular Values and Vectors of a Linear Map
Link NOC:Applied Linear Algebra Lecture 47 - Singular Value Decomposition
Link NOC:Applied Linear Algebra Lecture 48 - Polar decomposition and some applications of SVD
Link NOC:Basic Electrical Circuits Lecture 1 - Preliminaries
Link NOC:Basic Electrical Circuits Lecture 2 - Current
Link NOC:Basic Electrical Circuits Lecture 3 - Voltage
Link NOC:Basic Electrical Circuits Lecture 4 - Electrical elements and circuits
Link NOC:Basic Electrical Circuits Lecture 5 - Kirchhoff's current law (KCL)
Link NOC:Basic Electrical Circuits Lecture 6 - Kirchhoff's voltage law (KVL)
Link NOC:Basic Electrical Circuits Lecture 7 - Voltage source
Link NOC:Basic Electrical Circuits Lecture 8 - Current source
Link NOC:Basic Electrical Circuits Lecture 9 - Resistor
Link NOC:Basic Electrical Circuits Lecture 10 - Capacitor
Link NOC:Basic Electrical Circuits Lecture 11 - Inductor
Link NOC:Basic Electrical Circuits Lecture 12 - Mutual inductor
Link NOC:Basic Electrical Circuits Lecture 13 - Linearity of elements
Link NOC:Basic Electrical Circuits Lecture 14 - Series connection-Voltage sources in series
Link NOC:Basic Electrical Circuits Lecture 15 - Series connection of R, L, C, current source
Link NOC:Basic Electrical Circuits Lecture 16 - Elements in parallel
Link NOC:Basic Electrical Circuits Lecture 17 - Current source in series with an element; Voltage source in parallel with an element
Link NOC:Basic Electrical Circuits Lecture 18 - Extreme cases: Open and short circuits
Link NOC:Basic Electrical Circuits Lecture 19 - Summary
Link NOC:Basic Electrical Circuits Lecture 20 - Voltage controlled voltage source (VCVS)
Link NOC:Basic Electrical Circuits Lecture 21 - Voltage controlled current source (VCCS)
Link NOC:Basic Electrical Circuits Lecture 22 - Current controlled voltage source (CCVS)
Link NOC:Basic Electrical Circuits Lecture 23 - Current controlled current source (CCCS)
Link NOC:Basic Electrical Circuits Lecture 24 - Realizing a resistance using a VCCS or CCCS
Link NOC:Basic Electrical Circuits Lecture 25 - Scaling an element's value using controlled sources
Link NOC:Basic Electrical Circuits Lecture 26 - Example calculation
Link NOC:Basic Electrical Circuits Lecture 27 - Power and energy absorbed by electrical elements
Link NOC:Basic Electrical Circuits Lecture 28 - Power and energy in a resistor
Link NOC:Basic Electrical Circuits Lecture 29 - Power and energy in a capacitor
Link NOC:Basic Electrical Circuits Lecture 30 - Power and energy in an inductor
Link NOC:Basic Electrical Circuits Lecture 31 - Power and energy in a voltage source
Link NOC:Basic Electrical Circuits Lecture 32 - Power and energy in a current source
Link NOC:Basic Electrical Circuits Lecture 33 - Goals of circuit analysis
Link NOC:Basic Electrical Circuits Lecture 34 - Number of independent KCL equations
Link NOC:Basic Electrical Circuits Lecture 35 - Number of independent KVL equations and branch relationships
Link NOC:Basic Electrical Circuits Lecture 36 - Analysis of circuits with a single independent source
Link NOC:Basic Electrical Circuits Lecture 37 - Analysis of circuits with multiple independent sources using superposition
Link NOC:Basic Electrical Circuits Lecture 38 - Superposition: Example
Link NOC:Basic Electrical Circuits Lecture 39 - What is nodal analysis
Link NOC:Basic Electrical Circuits Lecture 40 - Setting up nodal analysis equations
Link NOC:Basic Electrical Circuits Lecture 41 - Structure of the conductance matrix
Link NOC:Basic Electrical Circuits Lecture 42 - How do elements circuit appear in the nodal analysis formulation
Link NOC:Basic Electrical Circuits Lecture 43 - Completely solving the circuit starting from nodal analysis
Link NOC:Basic Electrical Circuits Lecture 44 - Nodal analysis example
Link NOC:Basic Electrical Circuits Lecture 45 - Matrix inversion basics
Link NOC:Basic Electrical Circuits Lecture 46 - Nodal analysis with independent voltage sources
Link NOC:Basic Electrical Circuits Lecture 47 - Supernode for nodal analysis with independent voltage sources
Link NOC:Basic Electrical Circuits Lecture 48 - Nodal analysis with VCCS
Link NOC:Basic Electrical Circuits Lecture 49 - Nodal analysis with VCVS
Link NOC:Basic Electrical Circuits Lecture 50 - Nodal analysis with CCVS
Link NOC:Basic Electrical Circuits Lecture 51 - Nodal analysis with CCCS
Link NOC:Basic Electrical Circuits Lecture 52 - Nodal analysis summary
Link NOC:Basic Electrical Circuits Lecture 53 - Planar circuits
Link NOC:Basic Electrical Circuits Lecture 54 - Mesh currents and their relationship to branch currents
Link NOC:Basic Electrical Circuits Lecture 55 - Mesh analysis
Link NOC:Basic Electrical Circuits Lecture 56 - Mesh analysis with independent current sources-Supermesh
Link NOC:Basic Electrical Circuits Lecture 57 - Mesh analysis with current controlled voltage sources
Link NOC:Basic Electrical Circuits Lecture 58 - Mesh analysis with current controlled current sources
Link NOC:Basic Electrical Circuits Lecture 59 - Mesh analysis using voltage controlled sources
Link NOC:Basic Electrical Circuits Lecture 60 - Nodal analysis versus Mesh analysis
Link NOC:Basic Electrical Circuits Lecture 61 - Superposition theorem
Link NOC:Basic Electrical Circuits Lecture 62 - Pushing a voltage source through a node
Link NOC:Basic Electrical Circuits Lecture 63 - Splitting a current source
Link NOC:Basic Electrical Circuits Lecture 64 - Substitution theorem: Current source
Link NOC:Basic Electrical Circuits Lecture 65 - Substitution theorem: Voltage source
Link NOC:Basic Electrical Circuits Lecture 66 - Substituting a voltage or current source with a resistor
Link NOC:Basic Electrical Circuits Lecture 67 - Extensions to Superposition and Substitution theorem
Link NOC:Basic Electrical Circuits Lecture 68 - Thevenin's theorem
Link NOC:Basic Electrical Circuits Lecture 69 - Worked out example: Thevenin's theorem
Link NOC:Basic Electrical Circuits Lecture 70 - Norton's theorem
Link NOC:Basic Electrical Circuits Lecture 71 - Worked out example: Norton's theorem
Link NOC:Basic Electrical Circuits Lecture 72 - Maximum power transfer theorem
Link NOC:Basic Electrical Circuits Lecture 73 - Preliminaries
Link NOC:Basic Electrical Circuits Lecture 74 - Two port parameters
Link NOC:Basic Electrical Circuits Lecture 75 - y parameters
Link NOC:Basic Electrical Circuits Lecture 76 - y parameters: Examples
Link NOC:Basic Electrical Circuits Lecture 77 - z parameters
Link NOC:Basic Electrical Circuits Lecture 78 - z parameters: Examples
Link NOC:Basic Electrical Circuits Lecture 79 - h parameters
Link NOC:Basic Electrical Circuits Lecture 80 - h parameters: Examples
Link NOC:Basic Electrical Circuits Lecture 81 - g parameters
Link NOC:Basic Electrical Circuits Lecture 82 - g parameters: Examples
Link NOC:Basic Electrical Circuits Lecture 83 - Calculations with a two-port element
Link NOC:Basic Electrical Circuits Lecture 84 - Calculations with a two-port element
Link NOC:Basic Electrical Circuits Lecture 85 - Degenerate cases
Link NOC:Basic Electrical Circuits Lecture 86 - Relationships between different two-port parameters
Link NOC:Basic Electrical Circuits Lecture 87 - Equivalent circuit representation of two-ports
Link NOC:Basic Electrical Circuits Lecture 88 - Reciprocity
Link NOC:Basic Electrical Circuits Lecture 89 - Proof of reciprocity of resistive two-ports
Link NOC:Basic Electrical Circuits Lecture 90 - Proof for 4-terminal two-ports
Link NOC:Basic Electrical Circuits Lecture 91 - Reciprocity in terms of different two-port parameters
Link NOC:Basic Electrical Circuits Lecture 92 - Reciprocity in circuits containing controlled sources
Link NOC:Basic Electrical Circuits Lecture 93 - Examples
Link NOC:Basic Electrical Circuits Lecture 94 - Feedback amplifier using an opamp
Link NOC:Basic Electrical Circuits Lecture 95 - Ideal opamp
Link NOC:Basic Electrical Circuits Lecture 96 - Negative feedback around the opamp
Link NOC:Basic Electrical Circuits Lecture 97 - Finding opamp sign for negative feedback
Link NOC:Basic Electrical Circuits Lecture 98 - Example: Determining opamp sign for negative feedback
Link NOC:Basic Electrical Circuits Lecture 99 - Analysis of circuits with opamps
Link NOC:Basic Electrical Circuits Lecture 100 - More on opamps: Example circuits and additional topics
Link NOC:Basic Electrical Circuits Lecture 101 - Inverting amplifier
Link NOC:Basic Electrical Circuits Lecture 102 - Summing amplifier
Link NOC:Basic Electrical Circuits Lecture 103 - Instrumentation amplifier
Link NOC:Basic Electrical Circuits Lecture 104 - Negative resistance
Link NOC:Basic Electrical Circuits Lecture 105 - Finding opamp signs for negative feedback-circuits with multiple opamps
Link NOC:Basic Electrical Circuits Lecture 106 - Opamp supply voltages and saturation
Link NOC:Basic Electrical Circuits Lecture 107 - KCL with an opamp and supply currents
Link NOC:Basic Electrical Circuits Lecture 108 - Circuits with storage elements (capacitors and inductors)
Link NOC:Basic Electrical Circuits Lecture 109 - First order circuit with zero input-natural response
Link NOC:Basic Electrical Circuits Lecture 110 - First order RC circuit with zero input-Example
Link NOC:Basic Electrical Circuits Lecture 111 - First order circuit with a constant input
Link NOC:Basic Electrical Circuits Lecture 112 - General form of the first order circuit response
Link NOC:Basic Electrical Circuits Lecture 113 - First order RC circuit with a constant input-Example
Link NOC:Basic Electrical Circuits Lecture 114 - First order circuit with piecewise constant input
Link NOC:Basic Electrical Circuits Lecture 115 - First order circuit with piecewise constant input-Example
Link NOC:Basic Electrical Circuits Lecture 116 - First order circuit-Response of arbitrary circuit variables
Link NOC:Basic Electrical Circuits Lecture 117 - Summary: Computing first order circuit response
Link NOC:Basic Electrical Circuits Lecture 118 - Does a capacitor block DC?
Link NOC:Basic Electrical Circuits Lecture 119 - Finding the order of a circuit
Link NOC:Basic Electrical Circuits Lecture 120 - First order RC circuits with discontinuous capacitor voltages
Link NOC:Basic Electrical Circuits Lecture 121 - Summary: Computing first order circuit response with discontinuities
Link NOC:Basic Electrical Circuits Lecture 122 - First order RL circuits
Link NOC:Basic Electrical Circuits Lecture 123 - First order RL circuit with discontinuous inductor current-Example
Link NOC:Basic Electrical Circuits Lecture 124 - First order RC circuit with an exponential input
Link NOC:Basic Electrical Circuits Lecture 125 - First order RC response to its own natural response
Link NOC:Basic Electrical Circuits Lecture 126 - First order RC response to a sinusoidal input
Link NOC:Basic Electrical Circuits Lecture 127 - First order RC response to a sinusoidal input-via the complex exponential
Link NOC:Basic Electrical Circuits Lecture 128 - Summary: Linear circuit response to sinusoidal input via the complex exponential
Link NOC:Basic Electrical Circuits Lecture 129 - Three methods of calculating the sinusoidal steady state response
Link NOC:Basic Electrical Circuits Lecture 130 - Calculating the total response including initial conditions
Link NOC:Basic Electrical Circuits Lecture 131 - Why are sinusoids used in measurement?
Link NOC:Basic Electrical Circuits Lecture 132 - Second order system natural response
Link NOC:Basic Electrical Circuits Lecture 133 - Second order system as a cascade of two first order systems
Link NOC:Basic Electrical Circuits Lecture 134 - Second order system natural response-critically damped and underdamped
Link NOC:Basic Electrical Circuits Lecture 135 - Generalized form of a second order system
Link NOC:Basic Electrical Circuits Lecture 136 - Numerical example
Link NOC:Basic Electrical Circuits Lecture 137 - Series and parallel RLC circuits
Link NOC:Basic Electrical Circuits Lecture 138 - Forced response of a second order system
Link NOC:Basic Electrical Circuits Lecture 139 - Steady state response calculation and Phasors
Link NOC:Basic Electrical Circuits Lecture 140 - Phasors (Continued...)
Link NOC:Basic Electrical Circuits Lecture 141 - Magnitude and Phase plots
Link NOC:Basic Electrical Circuits Lecture 142 - Magnitude and phase plotes of a second order system
Link NOC:Basic Electrical Circuits Lecture 143 - Maximum power transfer and Conjugate matching
Link NOC:Optical Fiber Sensors Lecture 1 - Introduction to optical sensors
Link NOC:Optical Fiber Sensors Lecture 2 - Different types of optical sensors
Link NOC:Optical Fiber Sensors Lecture 3 - Overview of distributed sensors
Link NOC:Optical Fiber Sensors Lecture 4 - Optical sensors system
Link NOC:Optical Fiber Sensors Lecture 5 - Optical sources
Link NOC:Optical Fiber Sensors Lecture 6 - Optical receivers - 1
Link NOC:Optical Fiber Sensors Lecture 7 - Optical receivers - 2
Link NOC:Optical Fiber Sensors Lecture 8 - Optical receivers - 3
Link NOC:Optical Fiber Sensors Lecture 9 - Optical receiver design
Link NOC:Optical Fiber Sensors Lecture 10 - Noise Analysis
Link NOC:Optical Fiber Sensors Lecture 11 - Sensor Performance characteristics
Link NOC:Optical Fiber Sensors Lecture 12 - Noise Mitigation Techniques
Link NOC:Optical Fiber Sensors Lecture 13 - Lock in detection
Link NOC:Optical Fiber Sensors Lecture 14 - Amplitude modulated sensors - 1
Link NOC:Optical Fiber Sensors Lecture 15 - Gas absoprtion spectroscopy
Link NOC:Optical Fiber Sensors Lecture 16 - Amplitude modulated sensors - 2
Link NOC:Optical Fiber Sensors Lecture 17 - Amplitude modulated sensors - 3
Link NOC:Optical Fiber Sensors Lecture 18 - Amplitude modulated sensors - 4
Link NOC:Optical Fiber Sensors Lecture 19 - Problem Discussion
Link NOC:Optical Fiber Sensors Lecture 20 - Pulse-oximeter
Link NOC:Optical Fiber Sensors Lecture 21 - Phase modulated sensors - 1
Link NOC:Optical Fiber Sensors Lecture 22 - Phase modulated sensors - 2
Link NOC:Optical Fiber Sensors Lecture 23 - Phase modulated Sensors - 3
Link NOC:Optical Fiber Sensors Lecture 24 - Phase modulated sensors - 4
Link NOC:Optical Fiber Sensors Lecture 25 - Phase modulated sensors - 5
Link NOC:Optical Fiber Sensors Lecture 26 - Phase modulated sensors - 6
Link NOC:Optical Fiber Sensors Lecture 27 - Phase modulated sensors - 7
Link NOC:Optical Fiber Sensors Lecture 28 - Phase modulated sensors - 8
Link NOC:Optical Fiber Sensors Lecture 29 - Phase modulated sensors - 9
Link NOC:Optical Fiber Sensors Lecture 30 - Phase modulated sensors - 10
Link NOC:Optical Fiber Sensors Lecture 31 - Phase modulated Sensors - 11
Link NOC:Optical Fiber Sensors Lecture 32 - Wavelength modulated sensors - 1
Link NOC:Optical Fiber Sensors Lecture 33 - Wavelength modulated sensors - 2
Link NOC:Optical Fiber Sensors Lecture 34 - Wavelength modulated sensors - 3
Link NOC:Optical Fiber Sensors Lecture 35 - Wavelength modulated sensors - 4
Link NOC:Optical Fiber Sensors Lecture 36 - Wavelength modulated sensors - 5
Link NOC:Optical Fiber Sensors Lecture 37 - Wavelength modulated sensors - 6
Link NOC:Optical Fiber Sensors Lecture 38 - Wavelength modulated sensors - 7
Link NOC:Optical Fiber Sensors Lecture 39 - Wavelength modulated sensors - 8
Link NOC:Optical Fiber Sensors Lecture 40 - Polarization modulated sensors - 1
Link NOC:Optical Fiber Sensors Lecture 41 - Polarization modulated sensors - 2
Link NOC:Optical Fiber Sensors Lecture 42 - Polarization modulated sensors - 3
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 1 - Course Introduction and Motivation
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 2 - Kirchoff's Current and Voltage Laws, and the Incidence Matrix
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 3 - Power Conservation and Tellegen's Theorem
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 4 - Intuition behind Tellegen's Theorem
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 5 - Tellegen's Theorem and reciprocity in linear resistive networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 6 - Why is reciprocity useful in practice?
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 7 - Inter-reciprocity in linear time-invariant networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 8 - Inter-reciprocity in linear time-invariant networks (Continued...)
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 9 - Inter-reciprocity in networks with ideal operational amplifiers
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 10 - Review of Modified Nodal Analysis (MNA) of linear networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 11 - MNA stamps of controlled sources - the VCCS and VCVS
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 12 - MNA stamps of controlled sources - the CCCS and CCVS
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 13 - Inter-reciprocity in linear networks - using the MNA stamp approach
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 14 - The Adjoint Network
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 15 - MNA stamp of an ideal opamp
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 16 - Properties of circuits with multiple ideal opamps
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 17 - Introduction to noise in electrical networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 18 - Noise processed by a linear time-invariant system
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 19 - kT/C noise in a sample-and-hold circuit
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 20 - Noise in RLC networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 21 - Total integrated noise in RLC Networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 22 - Bode's Noise Theorem - Frequency domain
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 23 - Input referred noise in electrical networks - Part 1
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 24 - Input referred noise in electrical networks - Part 2
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 25 - Input referred noise and the noise factor
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 26 - Noise Factor Examples
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 27 - Motivation to learn about time-varying circuits and systems - Part 1
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 28 - Motivation to learn about time-varying circuits and systems - Part 2
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 29 - Convolution integral for LTV systems
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 30 - Frequency response of an LTV system
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 31 - LTV system example : Time-varying RC filter
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 32 - Linear Periodically Time-Varying Systems (LPTV)
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 33 - Response of an LPTV system to a complex exponential input
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 34 - Harmonic Transfer Functions
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 35 - Zadeh expansion of an LPTV system
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 36 - MNA analysis of LPTV networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 37 - MNA stamp of a periodically time varying conductance
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 38 - MNA stamp of a capacitor and a voltage source in an LPTV network
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 39 - Analysis of an example LPTV network - Part 1
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 40 - Analysis of an example LPTV network - Part 2
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 41 - LPTV network analysis, RC filter, time-varying
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 42 - Impedance and admittance in LTI and LPTV networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 43 - Thevenin and Norton's Theorems for LPTV networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 44 - The N-path principle
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 45 - N-path example
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 46 - Time-domain intuition of the N-path principle
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 47 - N-path example: Time-Interleaved ADCs
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 48 - Dc-dc converter as an LPTV system
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 49 - N-path principle: Multiphase dc-dc converter
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 50 - The N-path filter
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 51 - Computing H_0(j2\pi f_s) for a 4-path filter
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 52 - Input impedance of the 4-path filter at f_s
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 53 - Computing H_0(j2\pi 2 f_s) for a 4-path filter
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 54 - Determining H_0 for input frequency deviations from f_s
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 55 - Reciprocity and Inter-reciprocity in LPTV networks : Part 1
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 56 - Reciprocity and Inter-reciprocity in LPTV networks : Part 2, the transfer-function theorem
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 57 - Why is the transfer-function theorem important?
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 58 - The frequency-reversal theorem for inter-reciprocal (adjoint) LPTV networks : introduction
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 59 - The frequency-reversal theorem for inter-reciprocal (adjoint) LPTV networks : derivation
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 60 - Why is the frequency-reversal theorem important?
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 61 - Inter-reciprocity in signal-flow graphs
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 62 - Applications of inter-reciprocity: analysis of chopped amplifiers
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 63 - Applications of inter-reciprocity: analysis of chopped amplifiers (Continued...)
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 64 - Applications of inter-reciprocity: chopping with square-wave modulation
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 65 - Applications of inter-reciprocity: the switched-RC network
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 66 - Time-domain implications of inter-reciprocity and the adjoint network
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 67 - Time-domain implications of inter-reciprocity and the adjoint network : Example calculation
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 68 - LPTV networks with sampled outputs: Switched capacitor circuits
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 69 - LPTV networks with sampled outputs: A continuous-time delta-sigma data converter
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 70 - LPTV networks with sampled outputs: The equivalent LTI filter
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 71 - Finding the equivalent LTI filter of a sampled LPTV system : example
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 72 - Equivalent LTI filter for a switched-RC network
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 73 - Finding the equivalent LTI filter of a sampled LPTV system : example of a continuous-time delta-sigma modulator
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 74 - Finding the equivalent LTI filter of a sampled LPTV system with offset sampling
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 75 - LPTV networks driven by modulated inputs
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 76 - Introduction to noise in LPTV Networks
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 77 - Noise in LPTV networks with sampled outputs
Link NOC:Introduction to Time - Varying Electrical Networks Lecture 78 - Total integrated noise in networks with R,L,C and periodically operated switches
Link NOC:Digital System Design Lecture 1 - Introduction
Link NOC:Digital System Design Lecture 2 - Analog vs Digital
Link NOC:Digital System Design Lecture 3 - Binary number system - 1
Link NOC:Digital System Design Lecture 4 - Binary number system - 2
Link NOC:Digital System Design Lecture 5 - Negative number representation - 1
Link NOC:Digital System Design Lecture 6 - Negative number representation - 2
Link NOC:Digital System Design Lecture 7 - Other number systems
Link NOC:Digital System Design Lecture 8 - Floating point numbers - 1
Link NOC:Digital System Design Lecture 9 - Floating point numbers - 2
Link NOC:Digital System Design Lecture 10 - Floating point numbers - 3
Link NOC:Digital System Design Lecture 11 - Floating point numbers - 4
Link NOC:Digital System Design Lecture 12 - Floating point numbers - 5
Link NOC:Digital System Design Lecture 13 - Boolean functions
Link NOC:Digital System Design Lecture 14 - Boolean Algebra
Link NOC:Digital System Design Lecture 15 - SOP and POS Representation
Link NOC:Digital System Design Lecture 16 - Algebraic simplifications
Link NOC:Digital System Design Lecture 17 - Canonical form
Link NOC:Digital System Design Lecture 18 - Boolean minimization using K-Maps
Link NOC:Digital System Design Lecture 19 - More Logic gates
Link NOC:Digital System Design Lecture 20 - Hardware description language:Verilog
Link NOC:Digital System Design Lecture 21 - Verilog simulation demo
Link NOC:Digital System Design Lecture 22 - K-maps
Link NOC:Digital System Design Lecture 23 - QM-method
Link NOC:Digital System Design Lecture 24 - Area delay model
Link NOC:Digital System Design Lecture 25 - Multi-level logic
Link NOC:Digital System Design Lecture 26 - Multiplexer
Link NOC:Digital System Design Lecture 27 - Four state logic
Link NOC:Digital System Design Lecture 28 - Decoders - 1
Link NOC:Digital System Design Lecture 29 - Decoders - 2
Link NOC:Digital System Design Lecture 30 - Encoders
Link NOC:Digital System Design Lecture 31 - Programmable hardware
Link NOC:Digital System Design Lecture 32 - Ripple carry adder
Link NOC:Digital System Design Lecture 33 - Carry look ahead adder
Link NOC:Digital System Design Lecture 34 - Modeling BUS in Verilog
Link NOC:Digital System Design Lecture 35 - Fast adder:Carry select adder
Link NOC:Digital System Design Lecture 36 - Multiple operand adder
Link NOC:Digital System Design Lecture 37 - Multiplication
Link NOC:Digital System Design Lecture 38 - Iterative circuits - 1
Link NOC:Digital System Design Lecture 39 - Iterative circuits - 2
Link NOC:Digital System Design Lecture 40 - Introduction to sequential circuits
Link NOC:Digital System Design Lecture 41 - Latches
Link NOC:Digital System Design Lecture 42 - D-Flip-flops
Link NOC:Digital System Design Lecture 43 - More Flip-flops
Link NOC:Digital System Design Lecture 44 - Counters
Link NOC:Digital System Design Lecture 45 - Verilog-Behavior model - 1
Link NOC:Digital System Design Lecture 46 - Verilog-Behavior model - 2
Link NOC:Digital System Design Lecture 47 - Registers - 1
Link NOC:Digital System Design Lecture 48 - Registers - 2
Link NOC:Digital System Design Lecture 49 - Memory
Link NOC:Digital System Design Lecture 50 - Sequential circuit analysis
Link NOC:Digital System Design Lecture 51 - Derivation state graph
Link NOC:Digital System Design Lecture 52 - Sequence detector: Example 1
Link NOC:Digital System Design Lecture 53 - Sequence detector: Example 2
Link NOC:Digital System Design Lecture 54 - State machine reduction
Link NOC:Digital System Design Lecture 55 - State encoding
Link NOC:Digital System Design Lecture 56 - Multi-cycle adder design
Link NOC:Digital System Design Lecture 57 - Pipelined adder design
Link NOC:Digital System Design Lecture 58 - Multiplication design
Link NOC:Digital System Design Lecture 59 - Division hardware design
Link NOC:Digital System Design Lecture 60 - Interacting state machines
Link NOC:Digital System Design Lecture 61 - Register Transfer Level design
Link NOC:Digital System Design Lecture 62 - GCD computer at RTL Level
Link NOC:Digital System Design Lecture 63 - RTL Design - Bubble sort
Link NOC:Digital System Design Lecture 64 - RTL Design - Traffic light controller
Link NOC:Digital System Design Lecture 65 - FPGA
Link NOC:Digital System Design Lecture 66 - Xilinx CLB
Link NOC:Digital System Design Lecture 67 - FPGA - Design flow
Link NOC:Digital System Design Lecture 68 - FPGA design demo
Link NOC:Digital System Design Lecture 69 - Introduction to ASIC design flow - Part 1
Link NOC:Digital System Design Lecture 70 - Introduction to ASIC design flow - Part 2
Link NOC:Digital System Design Lecture 71 - Future directions
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 1 - Review of Probability Theory: Random Variable
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 2 - Sequence of Random Variables
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 3 - Laws of Large Numbers and Central Limit Theorem
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 4 - What is a stochastic process?
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 5 - Counting Process
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 6 - Poisson Process - Introduction
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 7 - Poisson Process - Memorylessness
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 8 - Poisson Process - Increment properties
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 9 - Distribution of arrival epoch Sn and N(t) for a Poisson Process
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 10 - Alternate definitions of a Poisson Process
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 11 - Merging of Poisson Processes - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 12 - Merging of Poisson Processes - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 13 - Splitting of Poisson Process - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 14 - Splitting of Poisson Process - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 15 - Example: Poisson Splitting
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 16 - Conditional arrival density and order statistics - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 17 - Conditional arrival density and order statistics - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 18 - Non Homogeneous Poisson Process
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 19 - Introduction to Queueing (with examples)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 20 - Examples: Non homogeneous Poisson process
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 21 - Examples: Competing Poisson processes
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 22 - Introduction to Renewal Processes
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 23 - Strong law for renewal processes
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 24 - Strong law for renewal processes - Proof
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 25 - Residual life, age and duration (Time average) - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 26 - Residual life, age and duration (Time average) - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 27 - Renewal Reward Theorem (Time average) - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 28 - Renewal Reward Theorem (Time average) - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 29 - Stopping time
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 30 - Wald's Equality
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 31 - Wald's Equality (Continued...)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 32 - Elementary Renewal Theorem
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 33 - The Renewal Equation
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 34 - The Renewal Equation (Continued...)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 35 - G/G/1 Queue and Little's theorem
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 36 - Little's theorem
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 37 - M/G/1 Queue
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 38 - M/G/1 Queue and PK Formula
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 39 - M/G/1 Queue and PK Formula (Continued...)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 40 - Ensemble rewards - Age and Duration
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 41 - Ensemble rewards - Age and Duration (Continued...)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 42 - Key Renewal Theorem and Ensemble rewards
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 43 - Introduction to finite state Discrete Time Markov Chains
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 44 - Class and Types of Classes in a DTMC
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 45 - Periodicity in a DTMC
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 46 - Matrix Representation of a DTMC
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 47 - The long term behaviour of a DTMC
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 48 - Stationary Distribution and Long term behaviour of a DTMC - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 49 - Stationary Distribution and Long term behaviour of a DTMC - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 50 - Stationary Distribution and Long term behaviour of a DTMC - Part 3
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 51 - Spectral Properties of Stochastic Matrices - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 52 - Spectral Properties of Stochastic Matrices - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 53 - The Short-term Behaviour of a DTMC
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 54 - Introduction to Countable-state DTMC
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 55 - Introduction to Countable-state DTMC (Continued...)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 56 - The Strong Markov Property
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 57 - Renewal Theory applied to DTMC's
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 58 - Stationary Distribution of a Countable State Space DTMC and Renewal Theory
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 59 - Stationary Distribution of a Countable State Space DTMC and Renewal Theory (Continued...)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 60 - Stationary Distribution and The Steady State Behaviour of a Countable-state DTMC - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 61 - Stationary Distribution and The Steady State Behaviour of a Countable-state DTMC - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 62 - Convergence to Steady State of a Coutable-state DTMC (Stochastic Coupling)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 63 - The Birth-Death Markov Chains
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 64 - The Reversibility Markov Chains
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 65 - The Reversibility Markov Chains (Continued...)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 66 - Time Sampled M/M/1 Queue and The Burke's Theorem
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 67 - Introduction to Continuous Time Markov Chains
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 68 - Introduction to CTMC (Continued...)
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 69 - The Steady State Behaviour of CTMC - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 70 - The Steady State Behaviour of CTMC - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 71 - The Steady State Behaviour of CTMC - Part 3
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 72 - The Steady State Behaviour of CTMC - Part 4
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 73 - The chapman-kolmogrov equations for CTMC's
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 74 - The Birth-Death Continuous time Markov Chains
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 75 - The Reversibility of Continuous time Markov Chains
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 76 - Burke's Theorem and the Tandem Queues - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 77 - Burke's Theorem and the Tandem Queues - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 78 - The Jackson Networks - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 79 - The Jackson Networks - Part 2
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 80 - Semi Markov Processes - Part 1
Link NOC:Stochastic Modeling and the Theory of Queues Lecture 81 - Semi Markov Processes - Part 2
Link NOC:Integrated Photonics Devices and Circuits Lecture 1 - Course Background and Learning Outcome
Link NOC:Integrated Photonics Devices and Circuits Lecture 2 - Moore's Law and Interconnect Bottleneck
Link NOC:Integrated Photonics Devices and Circuits Lecture 3 - Progress in Optical Interconnect Technology and Beyond
Link NOC:Integrated Photonics Devices and Circuits Lecture 4 - Evolution of Silicon Photonics Platform
Link NOC:Integrated Photonics Devices and Circuits Lecture 5 - Fundamentals of Lightwaves: EM Waves: Maxwell Equations and Plane Wave Solutions
Link NOC:Integrated Photonics Devices and Circuits Lecture 6 - Fundamentals of Lightwaves: EM Waves: Wave Propagation in Lossy Dielectric Medium
Link NOC:Integrated Photonics Devices and Circuits Lecture 7 - Fundamentals of Lightwaves: EM Waves in Metals and Semiconductors
Link NOC:Integrated Photonics Devices and Circuits Lecture 8 - Fundamentals of Lightwaves: EM Waves: Plasma Dispersion
Link NOC:Integrated Photonics Devices and Circuits Lecture 9 - Fundamentals of Lightwaves: EM Waves Principle of Optical Waveguiding
Link NOC:Integrated Photonics Devices and Circuits Lecture 10 - Fundamentals of Lightwaves: 1-D Optical Waveguide: Ray Optics Model
Link NOC:Integrated Photonics Devices and Circuits Lecture 11 - Optical Waveguides: Theory and Design: TIR Based Eigen Mode Solutions for Slab Waveguides
Link NOC:Integrated Photonics Devices and Circuits Lecture 12 - Optical Waveguides: Theory and Design: TIR Based Design Solutions for Slab Waveguides
Link NOC:Integrated Photonics Devices and Circuits Lecture 13 - Optical Waveguides: Theory and Design: Guided ModeSolutions for Slab Waveguides
Link NOC:Integrated Photonics Devices and Circuits Lecture 14 - Optical Waveguides: Theory and Design: Guided ModeSolutions for Slab Waveguides cont
Link NOC:Integrated Photonics Devices and Circuits Lecture 15 - Optical Waveguides: Theory and Design: Guided Mode Dispersionand Power in Slab Waveguides
Link NOC:Integrated Photonics Devices and Circuits Lecture 16 - Optical Waveguides: Theory and Design: Optical Waveguide with 2D confinement
Link NOC:Integrated Photonics Devices and Circuits Lecture 17 - Optical Waveguides: Theory and Design: Dispersion and Polarization of Guided Modes
Link NOC:Integrated Photonics Devices and Circuits Lecture 18 - Optical Waveguides: Theory and Design: Orthogonalityof Guided Modes
Link NOC:Integrated Photonics Devices and Circuits Lecture 19 - Optical Waveguides: Theory and Design: Coupled Mode Theoryof Guided Modes
Link NOC:Integrated Photonics Devices and Circuits Lecture 20 - Optical Waveguides: Theory and Design: Coupled Mode Theory (Continued...)
Link NOC:Integrated Photonics Devices and Circuits Lecture 21 - Optical Waveguides: Theory and Design: Coupled Mode Theory (Continued...)
Link NOC:Integrated Photonics Devices and Circuits Lecture 22 - Integrated Optical Components: Y-Junction Power Splitter/Combiner and Mach-Zehnder Interferometer
Link NOC:Integrated Photonics Devices and Circuits Lecture 23 - Integrated Optical Components: Directional Coupler: Coupled Waveguides
Link NOC:Integrated Photonics Devices and Circuits Lecture 24 - Integrated Optical Components: Directional Coupler: Coupled Waveguides (Continued...)
Link NOC:Integrated Photonics Devices and Circuits Lecture 25 - Integrated Optical Components: Directional Coupler: Design and Modelling
Link NOC:Integrated Photonics Devices and Circuits Lecture 26 - Integrated Optical Components: DC based MZI and Microring Resonator (MRR)
Link NOC:Integrated Photonics Devices and Circuits Lecture 27 - Integrated Optical Components: Microring Resonator (MRR): Passive Characteristics
Link NOC:Integrated Photonics Devices and Circuits Lecture 28 - Integrated Optical Components: Distributed Bragg Reflector (DBR)
Link NOC:Integrated Photonics Devices and Circuits Lecture 29 - Integrated Optical Components: Distributed Bragg Reflector (DBR): Device Design - Part 1
Link NOC:Integrated Photonics Devices and Circuits Lecture 30 - Integrated Optical Components: Distributed Bragg Reflector (DBR): Device Design - Part 2
Link NOC:Integrated Photonics Devices and Circuits Lecture 31 - Tunable Devices and Reconfigurable Circuits: Phase Error Interference
Link NOC:Integrated Photonics Devices and Circuits Lecture 32 - Tunable Devices and Reconfigurable Circuits: Post Fabrication Phase Error Corrections
Link NOC:Integrated Photonics Devices and Circuits Lecture 33 - Tunable Devices and Reconfigurable Circuits: Thermo-Optic Switching and Tuning
Link NOC:Integrated Photonics Devices and Circuits Lecture 34 - Tunable Devices and Reconfigurable Circuits: Programmable Silicon Photonics
Link NOC:Integrated Photonics Devices and Circuits Lecture 35 - Electro-Optic Modulators for Integrated Photonics: Basic Design and Working Principle
Link NOC:Integrated Photonics Devices and Circuits Lecture 36 - Electro-Optic Modulators for Integrated Photonics: Various Physical Mechanisms
Link NOC:Integrated Photonics Devices and Circuits Lecture 37 - Electro-Optic Modulators for Integrated Photonics: FCCE Based Silicon Photonics Modulator
Link NOC:Integrated Photonics Devices and Circuits Lecture 38 - Light Sources and Photodetectors for Integrated Photonics: Integrated Photonic light Sources - Part 1
Link NOC:Integrated Photonics Devices and Circuits Lecture 39 - Light Sources and Photodetectors for Integrated Photonics: Integrated Photonic light Sources - Part 2
Link NOC:Integrated Photonics Devices and Circuits Lecture 40 - Light Sources and Photodetectors for Integrated Photonics: Photodetectors for Silicon Photonics
Link NOC:Introduction to Semiconductor Devices Lecture 1 - Types of Semiconductors
Link NOC:Introduction to Semiconductor Devices Lecture 2 - Classical Vs Quantum Mechanics
Link NOC:Introduction to Semiconductor Devices Lecture 3 - Electrons in infinite and finite 1D potential well
Link NOC:Introduction to Semiconductor Devices Lecture 4 - 3D potential well model of atom and Bohr's model
Link NOC:Introduction to Semiconductor Devices Lecture 5 - Covalent bonds and inter-atomic interactions in Silicon
Link NOC:Introduction to Semiconductor Devices Lecture 6 - Energy band formation
Link NOC:Introduction to Semiconductor Devices Lecture 7 - Electron hole pair generation
Link NOC:Introduction to Semiconductor Devices Lecture 8 - Direct and Indirect bandgap semiconductors
Link NOC:Introduction to Semiconductor Devices Lecture 9 - Energy levels in infinite and finite potential wells (short demo)
Link NOC:Introduction to Semiconductor Devices Lecture 10 - Effective mass in Semiconductors
Link NOC:Introduction to Semiconductor Devices Lecture 11 - Intrinsic carrier density
Link NOC:Introduction to Semiconductor Devices Lecture 12 - Doping and extrinsic semiconductors
Link NOC:Introduction to Semiconductor Devices Lecture 13 - Fermi level in extrinsic semiconductors
Link NOC:Introduction to Semiconductor Devices Lecture 14 - Temperature dependence of Fermi level
Link NOC:Introduction to Semiconductor Devices Lecture 15 - Temperature dependence of Fermi level
Link NOC:Introduction to Semiconductor Devices Lecture 16 - Charge neutrality relationship
Link NOC:Introduction to Semiconductor Devices Lecture 17 - Drift current and energy band representation of kinetic energy of carriers
Link NOC:Introduction to Semiconductor Devices Lecture 18 - Semiconductor bands in a electric field
Link NOC:Introduction to Semiconductor Devices Lecture 19 - Diffusion current
Link NOC:Introduction to Semiconductor Devices Lecture 20 - Non-uniform doping
Link NOC:Introduction to Semiconductor Devices Lecture 21 - Equilibrium Vs Nonequilibrium carrier response
Link NOC:Introduction to Semiconductor Devices Lecture 22 - Minority carrier diffusion equation (MCDE) - Example problems
Link NOC:Introduction to Semiconductor Devices Lecture 23 - Quasi Fermi level in nonequilibrium conditions
Link NOC:Introduction to Semiconductor Devices Lecture 24 - Quasi Fermi level and minority carrier diffusion length
Link NOC:Introduction to Semiconductor Devices Lecture 25 - Semiconductor device fabrication
Link NOC:Introduction to Semiconductor Devices Lecture 26 - PN Junctions - An introduction
Link NOC:Introduction to Semiconductor Devices Lecture 27 - PN Junction electrostatics
Link NOC:Introduction to Semiconductor Devices Lecture 28 - Energy band diagram of PN junction
Link NOC:Introduction to Semiconductor Devices Lecture 29 - Depletion width and peak electric field
Link NOC:Introduction to Semiconductor Devices Lecture 30 - PN junction electrostatics - examples
Link NOC:Introduction to Semiconductor Devices Lecture 31 - Demo of PN Junction Lab on Nanohub
Link NOC:Introduction to Semiconductor Devices Lecture 32 - Forward and reverse biased PN junctions
Link NOC:Introduction to Semiconductor Devices Lecture 33 - Minority carrier injection in PN junctions
Link NOC:Introduction to Semiconductor Devices Lecture 34 - Current in forward biased PN junction
Link NOC:Introduction to Semiconductor Devices Lecture 35 - Current in reverse biased PN junction
Link NOC:Introduction to Semiconductor Devices Lecture 36 - Depletion capacitance in PN junction
Link NOC:Introduction to Semiconductor Devices Lecture 37 - Non-idealities in PN junction diode
Link NOC:Introduction to Semiconductor Devices Lecture 38 - Nanohub Demo - PN Junction with applied bias
Link NOC:Introduction to Semiconductor Devices Lecture 39 - Schottky barrier in metal-semiconductor junction
Link NOC:Introduction to Semiconductor Devices Lecture 40 - Current flow across a Schottky barrier
Link NOC:Introduction to Semiconductor Devices Lecture 41 - Ohmic vs rectifying contacts
Link NOC:Introduction to Semiconductor Devices Lecture 42 - An Ideal MOS Capacitor
Link NOC:Introduction to Semiconductor Devices Lecture 43 - Operating regimes of a MOSCAP
Link NOC:Introduction to Semiconductor Devices Lecture 44 - Simplified band diagrams of accumulation and depletion in MOSCAP
Link NOC:Introduction to Semiconductor Devices Lecture 45 - Inversion in a MOSCAP
Link NOC:Introduction to Semiconductor Devices Lecture 46 - NMOSCAP in accumulation mode
Link NOC:Introduction to Semiconductor Devices Lecture 47 - NMOSCAP in depletion mode
Link NOC:Introduction to Semiconductor Devices Lecture 48 - NMOSCAP in inversion mode
Link NOC:Introduction to Semiconductor Devices Lecture 49 - Exact solution vs delta-depletion approximation
Link NOC:Introduction to Semiconductor Devices Lecture 50 - Threshold voltage in a MOSCAP
Link NOC:Introduction to Semiconductor Devices Lecture 51 - Nanohub Demo - MOSCAP tool
Link NOC:Introduction to Semiconductor Devices Lecture 52 - Non-ideal MOS Capacitor
Link NOC:Introduction to Semiconductor Devices Lecture 53 - MOSCAP Capacitance-Voltage (CV) Characteristics
Link NOC:Introduction to Semiconductor Devices Lecture 54 - Example problems with MOSCAPs
Link NOC:Introduction to Semiconductor Devices Lecture 55 - Impact of doping, oxide thickness and temperature on CV
Link NOC:Introduction to Semiconductor Devices Lecture 56 - Nanohub Demo - MOS CV
Link NOC:Introduction to Semiconductor Devices Lecture 57 - Introduction to MOSFET
Link NOC:Introduction to Semiconductor Devices Lecture 58 - Operating modes of a MOSFET
Link NOC:Introduction to Semiconductor Devices Lecture 59 - IV Characteristics of a long channel MOSFET
Link NOC:Introduction to Semiconductor Devices Lecture 60 - Example problems with MOSFETs
Link NOC:Introduction to Semiconductor Devices Lecture 61 - MOSFET device metrics
Link NOC:Introduction to Semiconductor Devices Lecture 62 - CMOS Technology
Link NOC:Introduction to Semiconductor Devices Lecture 63 - MOSFET Scaling and technology nodes
Link NOC:Introduction to Semiconductor Devices Lecture 64 - Limits of scaling
Link NOC:Introduction to Semiconductor Devices Lecture 65 - Current characteristics of a short channel MOSFET
Link NOC:Introduction to Semiconductor Devices Lecture 66 - Threshold voltage characteristics of short channel MOSFET
Link NOC:Introduction to Semiconductor Devices Lecture 67 - MOSFETs in the 21st century
Link NOC:Introduction to Semiconductor Devices Lecture 68 - Optical absorption and bandgap
Link NOC:Introduction to Semiconductor Devices Lecture 69 - Introduction to solar cells
Link NOC:Introduction to Semiconductor Devices Lecture 70 - Efficiency of a solar cell
Link NOC:Introduction to Semiconductor Devices Lecture 71 - Types of photodetectors
Link NOC:Introduction to Semiconductor Devices Lecture 72 - PIN and avalanche Photodectectors
Link NOC:Introduction to Semiconductor Devices Lecture 73 - Photodetector metrics
Link NOC:Introduction to Semiconductor Devices Lecture 74 - Radiative absoption and emission processes
Link NOC:Introduction to Semiconductor Devices Lecture 75 - Materials for optoelectronic devices
Link NOC:Introduction to Semiconductor Devices Lecture 76 - Operation of a light emitting diode (LED)
Link NOC:Introduction to Semiconductor Devices Lecture 77 - LED emission spectrum
Link NOC:Introduction to Semiconductor Devices Lecture 78 - Stimulated emission and lasing
Link NOC:Electric Vehicles and Renewable Energy Lecture 1 - Electric Vehicle Introduction
Link NOC:Electric Vehicles and Renewable Energy Lecture 2 - The drive Torque, Power, Speed and Energy
Link NOC:Electric Vehicles and Renewable Energy Lecture 3 - Energy Source
Link NOC:Electric Vehicles and Renewable Energy Lecture 4 - Vehicle Auxillary, Petrol pumps and Charging stations
Link NOC:Electric Vehicles and Renewable Energy Lecture 5 - Introduction to Electric Vehicles in India
Link NOC:Electric Vehicles and Renewable Energy Lecture 6 - Can India Drive its EV program Innovatively and Differently and scale
Link NOC:Electric Vehicles and Renewable Energy Lecture 7 - Battery Cost reduction strategy
Link NOC:Electric Vehicles and Renewable Energy Lecture 8 - A bit about Batteries, Charging and Swapping Infrastructure
Link NOC:Electric Vehicles and Renewable Energy Lecture 9 - Where will we get Lithium for batteries and EV Subsystems
Link NOC:Electric Vehicles and Renewable Energy Lecture 10 - Forces acting when a vehicle move
Link NOC:Electric Vehicles and Renewable Energy Lecture 11 - Aerodynamic drag, Rolling Resistance and Uphill Resistance
Link NOC:Electric Vehicles and Renewable Energy Lecture 12 - Power and torque to accelerate
Link NOC:Electric Vehicles and Renewable Energy Lecture 13 - Putting it all together - 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 14 - Putting it all together - 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 15 - Concept of drive cycle - 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 16 - Concept of drive cycle - 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 17 - Drive Cycles and Energy used per km - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 18 - Drive Cycles and Energy used per km - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 19 - EV Subsystem: Design of EV Drive Train - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 20 - EV Subsystem: Design of EV Drive Train - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 21 - Introduction to Battery Parameters - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 22 - Introduction to Battery Parameters - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 23 - Why Lithium Ion Battery? - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 24 - Why Lithium Ion Battery? - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 25 - Batteries in Future
Link NOC:Electric Vehicles and Renewable Energy Lecture 26 - Li-Ion Battery Cells
Link NOC:Electric Vehicles and Renewable Energy Lecture 27 - SoH and SoC estimation and Self Discharge - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 28 - SoH and SoC estimation and Self Discharge - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 29 - Battery Pack Development - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 30 - Battery Pack Development - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 31 - Computation of Effective cost of battery - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 32 - Computation of Effective cost of battery - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 33 - Charging Batteries
Link NOC:Electric Vehicles and Renewable Energy Lecture 34 - Fundamentals of Battery Pack Design
Link NOC:Electric Vehicles and Renewable Energy Lecture 35 - Electrical Design of Battery Pack - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 36 - Electrical Design of Battery Pack - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 37 - Electrical Design of Battery Pack - Part 3
Link NOC:Electric Vehicles and Renewable Energy Lecture 38 - Mechanical Design of Battery Pack - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 39 - Mechanical Design of Battery Pack - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 40 - Mechanical Design of Battery Pack - Part 3
Link NOC:Electric Vehicles and Renewable Energy Lecture 41 - Mechanical Design of Battery Pack - Part 4
Link NOC:Electric Vehicles and Renewable Energy Lecture 42 - Thermal Design of Battery Pack - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 43 - Thermal Design of Battery Pack - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 44 - Thermal Design of Battery Pack - Part 3
Link NOC:Electric Vehicles and Renewable Energy Lecture 45 - Thermal Design of Battery Pack - Part 4
Link NOC:Electric Vehicles and Renewable Energy Lecture 46 - BMS Design and Embedded System - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 47 - BMS Design and Embedded System - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 48 - BMS Design and Embedded System - Part 3
Link NOC:Electric Vehicles and Renewable Energy Lecture 49 - BMS Design and Embedded System - Part 4
Link NOC:Electric Vehicles and Renewable Energy Lecture 50 - BMS Design and Embedded System - Part 5
Link NOC:Electric Vehicles and Renewable Energy Lecture 51 - Cell Testing and Characterization - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 52 - Cell Testing and Characterization - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 53 - EV Motors and Controllers - Vehicle Dynamics - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 54 - EV Motors and Controllers - Vehicle Dynamics - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 55 - EV Motors and Controllers - Understanding Flow - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 56 - EV Motors and Controllers - Understanding Flow - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 57 - Power and Efficiency
Link NOC:Electric Vehicles and Renewable Energy Lecture 58 - Torque Production - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 59 - Torque Production - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 60 - Torque Production - Part 3
Link NOC:Electric Vehicles and Renewable Energy Lecture 61 - Speed and Back EMF
Link NOC:Electric Vehicles and Renewable Energy Lecture 62 - The d-q Equivalent circuit - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 63 - The d-q Equivalent circuit - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 64 - Field-oriented Control
Link NOC:Electric Vehicles and Renewable Energy Lecture 65 - Three phase AC - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 66 - Three phase AC - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 67 - Thermal Design - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 68 - Thermal Design - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 69 - Thermal Design - Part 3
Link NOC:Electric Vehicles and Renewable Energy Lecture 70 - Engineering Considerations - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 71 - Engineering Considerations - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 72 - Engineering Considerations - Part 3 and Future Frontiers
Link NOC:Electric Vehicles and Renewable Energy Lecture 73 - EV Charger Introduction
Link NOC:Electric Vehicles and Renewable Energy Lecture 74 - Charger Paramaters and Types
Link NOC:Electric Vehicles and Renewable Energy Lecture 75 - Slow Fast chargers and Swapping
Link NOC:Electric Vehicles and Renewable Energy Lecture 76 - Swapping
Link NOC:Electric Vehicles and Renewable Energy Lecture 77 - Standardization and on board chargers
Link NOC:Electric Vehicles and Renewable Energy Lecture 78 - Public chargers
Link NOC:Electric Vehicles and Renewable Energy Lecture 79 - Public charger economics in Indian Context
Link NOC:Electric Vehicles and Renewable Energy Lecture 80 - Bulk Chargers, Swapping stations and data analytics
Link NOC:Electric Vehicles and Renewable Energy Lecture 81 - Introduction to Energy Scenario in India - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 82 - Introduction to Energy Scenario in India - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 83 - A novel Approach towards 100% RE in India - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 84 - A novel Approach towards 100% RE in India - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 85 - Going Beyond solar, wind, Li Ion and chilled water storage
Link NOC:Electric Vehicles and Renewable Energy Lecture 86 - Solar Photovoltaic
Link NOC:Electric Vehicles and Renewable Energy Lecture 87 - Solar Cell and its Characteristics
Link NOC:Electric Vehicles and Renewable Energy Lecture 88 - Solar Cells to Modules
Link NOC:Electric Vehicles and Renewable Energy Lecture 89 - Wind Energy
Link NOC:Electric Vehicles and Renewable Energy Lecture 90 - The War of Currents
Link NOC:Electric Vehicles and Renewable Energy Lecture 91 - The Birth of Solar - DC
Link NOC:Electric Vehicles and Renewable Energy Lecture 92 - Storage Options for Energy - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 93 - Storage Options for Energy - Part 2
Link NOC:Electric Vehicles and Renewable Energy Lecture 94 - Storage Options for Energy - Part 3
Link NOC:Electric Vehicles and Renewable Energy Lecture 95 - Storage Options for Energy - Part 4
Link NOC:Electric Vehicles and Renewable Energy Lecture 96 - The EV Ecosystem - Part 1
Link NOC:Electric Vehicles and Renewable Energy Lecture 97 - The EV Ecosystem - Part 2
Link Phase-locked loops Lecture 1 - Course Introduction and Motivation - Part I
Link Phase-locked loops Lecture 2 - Course Introduction and Motivation - Part II
Link Phase-locked loops Lecture 3 - Basic Operation of a Phase Locked Loop
Link Phase-locked loops Lecture 4 - Simple Implementation of a Phase Locked Loop
Link Phase-locked loops Lecture 5 - Input Output Characteristics of Basic PLL Blocks
Link Phase-locked loops Lecture 6 - Time Domain Analysis of a Simple PLL
Link Phase-locked loops Lecture 7 - Time Domain Versus Small Signal Analysis of a Simple PLL
Link Phase-locked loops Lecture 8 - Type and Order of PLL
Link Phase-locked loops Lecture 9 - Small Signal Analysis of Type-I/II/III PLLs for Phase Step, Frequency Step and Frequency Ramp
Link Phase-locked loops Lecture 10 - Frequency Acquisition Range for PLLs
Link Phase-locked loops Lecture 11 - Frequency Acquisition in Type-I PLLs
Link Phase-locked loops Lecture 12 - Frequency Acquisition Limits in Type-I PLLs
Link Phase-locked loops Lecture 13 - Frequency Acquisition in Type II PLLs
Link Phase-locked loops Lecture 14 - Frequency Acquisition Ranges in Type II PLLs with Ideal and Non Ideal Integrator
Link Phase-locked loops Lecture 15 - Frequency Domain Insight in Frequency Acquisition for Type II PLLs
Link Phase-locked loops Lecture 16 - Introduction to Clock Multipliers
Link Phase-locked loops Lecture 17 - Analog Phase Error Detectors - Part I
Link Phase-locked loops Lecture 18 - Analog Phase Error Detectors - Part II
Link Phase-locked loops Lecture 19 - Digital Phase Error Detectors - Part I
Link Phase-locked loops Lecture 20 - Digital Phase Error Detectors - Part II
Link Phase-locked loops Lecture 21 - Range Extension for Phase Error Detectors
Link Phase-locked loops Lecture 22 - Phase Frequency Detector
Link Phase-locked loops Lecture 23 - Digital Frequency Detector
Link Phase-locked loops Lecture 24 - Charge Pump PLL
Link Phase-locked loops Lecture 25 - Small Signal and Stability Analysis of Type II Order 2 Charge Pump PLL
Link Phase-locked loops Lecture 26 - Problems in Charge Pump PLL - Dead Zone in PFD
Link Phase-locked loops Lecture 27 - Problems in Charge Pump PLL - Reference Spur
Link Phase-locked loops Lecture 28 - Design Procedure for Type-II Order 3 Charge Pump PLL
Link Phase-locked loops Lecture 29 - Design Procedure for Charge Pump Clock Multiplier
Link Phase-locked loops Lecture 30 - Sources of Non-Linearities in CP-PLL - Part I
Link Phase-locked loops Lecture 31 - Sources of Non-Linearities in CP-PLL - Part II
Link Phase-locked loops Lecture 32 - Noise Analysis in CP-PLL - Part I
Link Phase-locked loops Lecture 33 - Noise Analysis in CP PLL - Part II
Link Phase-locked loops Lecture 34 - Noise Analysis in CP-PLL - Part III
Link Phase-locked loops Lecture 35 - Noise Simulations for CP-PLL Blocks
Link Phase-locked loops Lecture 36 - Introduction to Oscillators
Link Phase-locked loops Lecture 37 - Low Swing Ring Oscillator - Part I
Link Phase-locked loops Lecture 38 - Low-Swing Ring Oscillator - Part II
Link Phase-locked loops Lecture 39 - Large-Swing Ring Oscillator - Part I
Link Phase-locked loops Lecture 40 - Large-Swing Ring Oscillator - Part II
Link Phase-locked loops Lecture 41 - Large-Swing Ring Oscillator - Part III
Link Phase-locked loops Lecture 42 - Large-Swing Ring Oscillator - Part IV
Link Phase-locked loops Lecture 43 - Large-Swing Ring Oscillator - Part V
Link Phase-locked loops Lecture 44 - Supply Regulated VCO - Part I
Link Phase-locked loops Lecture 45 - Supply Regulated VCO - Part II
Link Phase-locked loops Lecture 46 - Supply Regulated VCO - Part III
Link Phase-locked loops Lecture 47 - Phase Noise in Ring Oscillators
Link Phase-locked loops Lecture 48 - Circuit level Design of PFD - Part I
Link Phase-locked loops Lecture 49 - Circuit level Design of PFD - Part II
Link Phase-locked loops Lecture 50 - Circuit level Design of PFD - Part III
Link Phase-locked loops Lecture 51 - Circuit level Design of Charge Pump - Part I
Link Phase-locked loops Lecture 52 - Circuit-level Design of Charge Pump - Part II
Link Phase-locked loops Lecture 53 - Circuit-level Design of Charge Pump - Part III
Link Phase-locked loops Lecture 54 - Circuit-level Design of Charge Pump - Part IV
Link Phase-locked loops Lecture 55 - Circuit-level Design of Charge Pump - Part V
Link Phase-locked loops Lecture 56 - Circuit-level Design of Charge Pump - Part VI
Link Phase-locked loops Lecture 57 - Circuit-level Design of Clock Frequency Divider
Link Phase-locked loops Lecture 58 - Techniques for Wide Frequency Range Clock Multiplier
Link Phase-locked loops Lecture 59 - Introduction to Digital PLL
Link Phase-locked loops Lecture 60 - Design of Time-to-Digital Converter
Link Phase-locked loops Lecture 61 - Small Signal Analysis of Digital PLL
Link Phase-locked loops Lecture 62 - Noise Analysis in Digital PLL
Link Phase-locked loops Lecture 63 - Analog/Digital Hybrid PLL - Part I
Link Phase-locked loops Lecture 64 - Analog/Digital Hybrid PLL - Part II
Link Phase-locked loops Lecture 65 - Course Summary
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 1 - Review of Maxwell's Equations
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 2 - Wave Equation
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 3 - Dispersion Relation
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 4 - Propagating and Evanescent Waves
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 5 - Diffraction Limit and Spatial Frequencies
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 6 - Plane Waves
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 7 - Optical Response of Materials
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 8 - Lorentz Model
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 9 - Properties of Lorentz Oscillator Model
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 10 - Drude-Lorentz Model for Metals
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 11 - Kramers-Kronig Relation
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 12 - Engineering Optical Response of Materials
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 13 - Low dimensional systems
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 14 - Absorption in Semiconductors
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 15 - Optical gain in semiconductors
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 16 - Absorption in low-dimensional semiconductors
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 17 - Selection rules for optical processes
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 18 - Scattering of EM radiation
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 19 - LSPR: Quasi-static approximation
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 20 - Size dependence of Plasmon Resonance
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 21 - Tuning Plasmonic Resonances
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 22 - Surface Plasmon Polariton(SPP)
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 23 - Understanding SPP Dispersion Diagram
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 24 - Exciting Surface Plasmon Polaritons
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 25 - Analytical Calculation of Scattering Coefficients - IPython code overview
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 26 - EM Waves in Multilayer Stack - T Matrix formulation
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 27 - Photonic Bandgap in 1D
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 28 - EM Waves in 1D Photonic Crystal
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 29 - Diffracton Grating
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 30 - Applications of Photonic Crystals
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 31 - PhC in 1D - T-matrix examples
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 32 - Introduction to Metamaterials
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 33 - Metamaterials at GHz and THz frequecies
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 34 - Negative index materials at optical frequencies
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 35 - Plasmonic Metasurfaces
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 36 - Dielectric Metasurfaces
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 37 - Tunable and Active Metamaterials
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 38 - Radiative Absorption and Emission
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 39 - Miniaturization of Integrated Photonic Devices
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 40 - Recent trends in nanoscale lasers
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 41 - Non-Hermitian Systems
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 42 - Resonant light-atom interactions
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 43 - Experimental observation of Rabi oscillations
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 44 - Atom-Cavity Interaction - Weak and strong coupling regimes
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 45 - Experimental observation of weak and strong coupling
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 46 - Fabrication of nanophotonic structures - 1
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 47 - Fabrication of nanophotonic structures - 2
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 48 - Measuring light quanta
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 49 - Photon Statistics
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 50 - Photodetection and shot noise limit
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 51 - Second order correlation function
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 52 - Hanbury Brown-Twiss Experiment with Photons
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 53 - EM Waves as harmonic oscillator
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 54 - Vacuum fluctuations
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 55 - Coherent and squeezed states
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 56 - Squeezed and photon number states
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 57 - Application of squeezed states
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 58 - Preliminaries for quantum theory of light
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 59 - Quantum theory of light
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 60 - Operator solution of quantum harmonic oscillator
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 61 - Photon number states
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 62 - Field quadratures and operators
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 63 - Uncertainty relations for quantum light
Link NOC:Fundamentals of Nano and Quantum Photonics Lecture 64 - Applications of quantum light - Quantum Key Distribution
Link NOC:Analog Electronic Circuits (IITM) Lecture 1 - Introduction Linear and Nonlinear Network
Link NOC:Analog Electronic Circuits (IITM) Lecture 2 - Small Signal Analysis of Nonlinear Networks
Link NOC:Analog Electronic Circuits (IITM) Lecture 3 - Small Signal Analysis
Link NOC:Analog Electronic Circuits (IITM) Lecture 4 - Incremental Model for Common Two Terminal Element Passive Two Terminal Elements
Link NOC:Analog Electronic Circuits (IITM) Lecture 5 - Linear and Nonlinear Two Ports and the Incremental Y Matrix
Link NOC:Analog Electronic Circuits (IITM) Lecture 6 - Graphical Representation of the Y Matrix
Link NOC:Analog Electronic Circuits (IITM) Lecture 7 - Nonlinear Two Ports With Incremental Gain
Link NOC:Analog Electronic Circuits (IITM) Lecture 8 - IV Charateristic of a Nonlinear 2 port with Incremental Gain
Link NOC:Analog Electronic Circuits (IITM) Lecture 9 - The MOSFET and its Characterisitics
Link NOC:Analog Electronic Circuits (IITM) Lecture 10 - Deriving the Common V Source Amplifier - Part 1
Link NOC:Analog Electronic Circuits (IITM) Lecture 11 - The Common Source Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 12 - Large Signal Behaviour of the Common Source Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 13 - The Common Source Amplifier Swing Limits
Link NOC:Analog Electronic Circuits (IITM) Lecture 14 - Introduction to Robust Biasing
Link NOC:Analog Electronic Circuits (IITM) Lecture 15 - Robust Biasing Part 1 Common Source Amplifier with DC Drain Feedback
Link NOC:Analog Electronic Circuits (IITM) Lecture 16 - Robust Biasing with the Current Mirror and Drain Gate Resistor
Link NOC:Analog Electronic Circuits (IITM) Lecture 17 - Robust Baising With Source Feedback - Part 1
Link NOC:Analog Electronic Circuits (IITM) Lecture 18 - Robust Biasing with Source Feedback - Part 2
Link NOC:Analog Electronic Circuits (IITM) Lecture 19 - Robust Biasing with Source Degeneration
Link NOC:Analog Electronic Circuits (IITM) Lecture 20 - Introduction to Negative Feedback
Link NOC:Analog Electronic Circuits (IITM) Lecture 21 - The Ideal Operational Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 22 - Negative Feedback (Continued...)
Link NOC:Analog Electronic Circuits (IITM) Lecture 23 - Robust Baising with Drain Measurement and Source Feedback
Link NOC:Analog Electronic Circuits (IITM) Lecture 24 - Robust biasing with source measurement and gate feedback
Link NOC:Analog Electronic Circuits (IITM) Lecture 25 - The Incremental Voltage Controlled Voltage Source The Common drain Amplifier Incremental Picture
Link NOC:Analog Electronic Circuits (IITM) Lecture 26 - Baising of the Common Drain Amplifier and Signal Swings
Link NOC:Analog Electronic Circuits (IITM) Lecture 27 - The VCVS Continued, the Incremental
Link NOC:Analog Electronic Circuits (IITM) Lecture 28 - Introducing the Current Controlled Voltage Source
Link NOC:Analog Electronic Circuits (IITM) Lecture 29 - The Incremental Current Controlled Voltage Source Transimpedance Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 30 - The Transimpedance amplifier (Continued...)
Link NOC:Analog Electronic Circuits (IITM) Lecture 31 - The Incremental current controlled current source, the common gate amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 32 - Summary of controlled Sources and finite output Impedance of the Transistor
Link NOC:Analog Electronic Circuits (IITM) Lecture 33 - Effect of Finite Output Resistance on the Basic Building Blocks - Part 1
Link NOC:Analog Electronic Circuits (IITM) Lecture 34 - Effect of Finite Output Resistance on the Basic Building Blocks - Part 2
Link NOC:Analog Electronic Circuits (IITM) Lecture 35 - Effect of Finite Output Resistance on the Basic Building Blocks - Part 3
Link NOC:Analog Electronic Circuits (IITM) Lecture 36 - Finite output Effect in current Mirrors the Cascode Current Mirror
Link NOC:Analog Electronic Circuits (IITM) Lecture 37 - Comparison of Current Mirrors The High Swing Cascode
Link NOC:Analog Electronic Circuits (IITM) Lecture 38 - Precision High Swing Cascode
Link NOC:Analog Electronic Circuits (IITM) Lecture 39 - The PMOS transistor
Link NOC:Analog Electronic Circuits (IITM) Lecture 40 - Small Signal Model and Bias Stabilization
Link NOC:Analog Electronic Circuits (IITM) Lecture 41 - Basic Building Blocks with PMOS Devices
Link NOC:Analog Electronic Circuits (IITM) Lecture 42 - Fixed Transconductance Bias Circuits from First Principles
Link NOC:Analog Electronic Circuits (IITM) Lecture 43 - Limitation of a Resistive Load
Link NOC:Analog Electronic Circuits (IITM) Lecture 44 - The Active Load
Link NOC:Analog Electronic Circuits (IITM) Lecture 45 - The Active Load (Continued...)
Link NOC:Analog Electronic Circuits (IITM) Lecture 46 - The CMOS Inverter
Link NOC:Analog Electronic Circuits (IITM) Lecture 47 - The CMOS Inverter (Continued...)
Link NOC:Analog Electronic Circuits (IITM) Lecture 48 - The Differential Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 49 - Half - Circuit Analysis
Link NOC:Analog Electronic Circuits (IITM) Lecture 50 - The Different Amplifier with Active Load - Part 1
Link NOC:Analog Electronic Circuits (IITM) Lecture 51 - The Different Amplifier with Active Load - Part 2
Link NOC:Analog Electronic Circuits (IITM) Lecture 52 - Large Signal Behaviour of the Different Pair
Link NOC:Analog Electronic Circuits (IITM) Lecture 53 - The two Stage Opamp and Single Supply Operation
Link NOC:Analog Electronic Circuits (IITM) Lecture 54 - The two Stage Opamp (Continued...)
Link NOC:Analog Electronic Circuits (IITM) Lecture 55 - The Two Stage Opamp (Continued...)
Link NOC:Analog Electronic Circuits (IITM) Lecture 56 - Swing Limits of the Two Stage OTA
Link NOC:Analog Electronic Circuits (IITM) Lecture 57 - The Two-Stage Opamp
Link NOC:Analog Electronic Circuits (IITM) Lecture 58 - The Bandgap Reference Principle
Link NOC:Analog Electronic Circuits (IITM) Lecture 59 - The Bandgap Reference - Part 1
Link NOC:Analog Electronic Circuits (IITM) Lecture 60 - The Bandgap Reference - Part 2
Link NOC:Analog Electronic Circuits (IITM) Lecture 61 - Memory Effects in MOS Transistors
Link NOC:Analog Electronic Circuits (IITM) Lecture 62 - The Common Source Amplifier with Parasitic Capacitances
Link NOC:Analog Electronic Circuits (IITM) Lecture 63 - The Common Source Amplifier with Parasitic Capacitances
Link NOC:Analog Electronic Circuits (IITM) Lecture 64 - Frequency Response of the Common Drain Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 65 - Frequency Response of the Common Gate Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 66 - Stability of Negative Feedback System The First Order Forward Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 67 - Stabilty of Second Order Feedback System
Link NOC:Analog Electronic Circuits (IITM) Lecture 68 - Stability of Third Order Negative Feedback System
Link NOC:Analog Electronic Circuits (IITM) Lecture 69 - Dominant Pole Compensation - Part 1
Link NOC:Analog Electronic Circuits (IITM) Lecture 70 - Dominant Pole Cpmpensation - Part 2
Link NOC:Analog Electronic Circuits (IITM) Lecture 71 - Phase Margin
Link NOC:Analog Electronic Circuits (IITM) Lecture 72 - Example Phase Margin Caculations
Link NOC:Analog Electronic Circuits (IITM) Lecture 73 - Dominant Pole Compensation Summary
Link NOC:Analog Electronic Circuits (IITM) Lecture 74 - Phase Margin Example
Link NOC:Analog Electronic Circuits (IITM) Lecture 75 - The 2 Stage Miller Compensated Amplifier
Link NOC:Analog Electronic Circuits (IITM) Lecture 76 - 2 Stage Operational Amplifier and Miller Compensation (Continued...)
Link NOC:Analog Electronic Circuits (IITM) Lecture 77 - Intuition Behind the Dominant and Second Poles in a Miller Compensated OTA
Link NOC:Analog Electronic Circuits (IITM) Lecture 78 - 2 Stage Operational Amplifier and Miller Compensation Cancelling the RHP Zero
Link NOC:Analog Electronic Circuits (IITM) Lecture 79 - Miller Compensation OTA Schematic
Link NOC:Analog Electronic Circuits (IITM) Lecture 80 - Bipolar Junction Transistor Circuits-Device Equations and Small Signal Model
Link NOC:Analog Electronic Circuits (IITM) Lecture 81 - BJT Biasing and Basic Building Blocks
Link NOC:Analog Electronic Circuits (IITM) Lecture 82 - Bipolar Junction Transistor Circuits Swing Limits and Two Stage Opamp
Link NOC:Analog Electronic Circuits (IITM) Lecture 83 - Input Stage of the 741 Opamp
Link NOC:Analog Electronic Circuits (IITM) Lecture 84 - Basic Analysis of the 741
Link NOC:Modern Computer Vision Lecture 1 - Course introduction - 1
Link NOC:Modern Computer Vision Lecture 2 - Course introduction - 2
Link NOC:Modern Computer Vision Lecture 3 - Introduction to Deep Learning - 1
Link NOC:Modern Computer Vision Lecture 4 - Introduction to Deep Learning - 2
Link NOC:Modern Computer Vision Lecture 5 - Introduction to Deep Learning - 3
Link NOC:Modern Computer Vision Lecture 6 - Introduction to Neuron - 1
Link NOC:Modern Computer Vision Lecture 7 - Introduction to Neuron - 2
Link NOC:Modern Computer Vision Lecture 8 - Introduction to Neuron - 3
Link NOC:Modern Computer Vision Lecture 9 - Multilayer Perceptron
Link NOC:Modern Computer Vision Lecture 10 - Regression and classification losses
Link NOC:Modern Computer Vision Lecture 11 - Training a neural network
Link NOC:Modern Computer Vision Lecture 12 - Gradient descent
Link NOC:Modern Computer Vision Lecture 13 - Activation function
Link NOC:Modern Computer Vision Lecture 14 - Backpropagation in MLP - 1
Link NOC:Modern Computer Vision Lecture 15 - Backpropagation in MLP - 2
Link NOC:Modern Computer Vision Lecture 16 - Optimization and Regularization - 1
Link NOC:Modern Computer Vision Lecture 17 - Optimization and Regularization - 2
Link NOC:Modern Computer Vision Lecture 18 - Regularization
Link NOC:Modern Computer Vision Lecture 19 - Dropout
Link NOC:Modern Computer Vision Lecture 20 - Pre-processing
Link NOC:Modern Computer Vision Lecture 21 - Convolutional Neural Networks - 1
Link NOC:Modern Computer Vision Lecture 22 - Convolutional Neural Networks - 2
Link NOC:Modern Computer Vision Lecture 23 - Convolutional Neural Networks - 3
Link NOC:Modern Computer Vision Lecture 24 - CNN Properties
Link NOC:Modern Computer Vision Lecture 25 - Alexnet
Link NOC:Modern Computer Vision Lecture 26 - CNN Architectures - 1
Link NOC:Modern Computer Vision Lecture 27 - CNN Architectures - 2
Link NOC:Modern Computer Vision Lecture 28 - CNN Architectures - 3
Link NOC:Modern Computer Vision Lecture 29 - Introduction to RNN - 1
Link NOC:Modern Computer Vision Lecture 30 - Introduction to RNN - 2
Link NOC:Modern Computer Vision Lecture 31 - Encoder-Decoder models in RNN
Link NOC:Modern Computer Vision Lecture 32 - LSTM
Link NOC:Modern Computer Vision Lecture 33 - Low-level vision - 1
Link NOC:Modern Computer Vision Lecture 34 - Low-level vision - 2
Link NOC:Modern Computer Vision Lecture 35 - Low-level vision - 3
Link NOC:Modern Computer Vision Lecture 36 - Spatial Domain Filtering
Link NOC:Modern Computer Vision Lecture 37 - Frequency Domain Filtering
Link NOC:Modern Computer Vision Lecture 38 - Edge Detection - 1
Link NOC:Modern Computer Vision Lecture 39 - Edge Detection - 2
Link NOC:Modern Computer Vision Lecture 40 - DeepNets for Edge Detection
Link NOC:Modern Computer Vision Lecture 41 - Line detection
Link NOC:Modern Computer Vision Lecture 42 - Feature detectors
Link NOC:Modern Computer Vision Lecture 43 - Harris Corner Detector - 1
Link NOC:Modern Computer Vision Lecture 44 - Harris Corner Detector - 2
Link NOC:Modern Computer Vision Lecture 45 - Harris Corner Detector - 3
Link NOC:Modern Computer Vision Lecture 46 - Blob detection - 1
Link NOC:Modern Computer Vision Lecture 47 - Blob detection - 2
Link NOC:Modern Computer Vision Lecture 48 - Blob detection - 3
Link NOC:Modern Computer Vision Lecture 49 - SIFT - 1
Link NOC:Modern Computer Vision Lecture 50 - SIFT - 2
Link NOC:Modern Computer Vision Lecture 51 - Feature descriptors - 1
Link NOC:Modern Computer Vision Lecture 52 - Feature descriptors - 2
Link NOC:Modern Computer Vision Lecture 53 - SURF - 1
Link NOC:Modern Computer Vision Lecture 54 - SURF - 2
Link NOC:Modern Computer Vision Lecture 55 - Single-View Geometry - 1
Link NOC:Modern Computer Vision Lecture 56 - Single-View Geometry - 2
Link NOC:Modern Computer Vision Lecture 57 - 2D Geometric transformations - 1
Link NOC:Modern Computer Vision Lecture 58 - 2D Geometric transformations - 2
Link NOC:Modern Computer Vision Lecture 59 - Camera intrinsics and extrinsics - 1
Link NOC:Modern Computer Vision Lecture 60 - Camera intrinsics and extrinsics - 2
Link NOC:Modern Computer Vision Lecture 61 - Two-view stereo - 1
Link NOC:Modern Computer Vision Lecture 62 - Two-view stereo - 2
Link NOC:Modern Computer Vision Lecture 63 - Two-view stereo - 3
Link NOC:Modern Computer Vision Lecture 64 - Algebraic representation of epipolar geometry - 1
Link NOC:Modern Computer Vision Lecture 65 - Algebraic representation of epipolar geometry - 2
Link NOC:Modern Computer Vision Lecture 66 - Fundamental matrix computation - 1
Link NOC:Modern Computer Vision Lecture 67 - Fundamental matrix computation - 2
Link NOC:Modern Computer Vision Lecture 68 - Structure from Motion - 1
Link NOC:Modern Computer Vision Lecture 69 - Structure from Motion - 2
Link NOC:Modern Computer Vision Lecture 70 - Structure from Motion - 3
Link NOC:Modern Computer Vision Lecture 71 - Batch processing in SFM
Link NOC:Modern Computer Vision Lecture 72 - Multi-view SFM
Link NOC:Modern Computer Vision Lecture 73 - Factorization methods in SFM
Link NOC:Modern Computer Vision Lecture 74 - Bundle adjustment
Link NOC:Modern Computer Vision Lecture 75 - Dense 3D reconstruction
Link NOC:Modern Computer Vision Lecture 76 - Some results in Stereo and SFM
Link NOC:Modern Computer Vision Lecture 77 - Deepnets for stereo and SFM - 1
Link NOC:Modern Computer Vision Lecture 78 - Deepnets for stereo and SFM - 2
Link NOC:Modern Computer Vision Lecture 79 - Mid-level vision - 1
Link NOC:Modern Computer Vision Lecture 80 - Mid-level vision - 2
Link NOC:Modern Computer Vision Lecture 81 - Lucas-Kanade method for OF
Link NOC:Modern Computer Vision Lecture 82 - Handling large motion in optical flow
Link NOC:Modern Computer Vision Lecture 83 - Image segmentation
Link NOC:Modern Computer Vision Lecture 84 - GMM for clustering
Link NOC:Modern Computer Vision Lecture 85 - Deepnets for Segmentation and OF -1
Link NOC:Modern Computer Vision Lecture 86 - Deepnets for Segmentation and OF -2
Link NOC:Modern Computer Vision Lecture 87 - Deepnets for Segmentation and OF -3
Link NOC:Modern Computer Vision Lecture 88 - Deepnets for Object Detection - 1
Link NOC:Modern Computer Vision Lecture 89 - Deepnets for Object Detection - 2
Link NOC:Modern Computer Vision Lecture 90 - Vision and Language
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 1 - Introduction to Optical Wireless Communications (OWC)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 2 - Basics of Lighting System
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 3 - Optical Sources (LED)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 4 - Optical Sources (LASER)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 5 - Photodetecors
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 6 - Photodetectors (Continued...)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 7 - SNR for PIN and APD
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 8 - Indoor OWC channel modelling
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 9 - Indoor OWC channel modelling (Continued...)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 10 - Channel model for single source
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 11 - Channel model for multiple sources
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 12 - MIMO channel
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 13 - MIMO channel (Continued...)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 14 - Outdoor Optical Channel Modelling
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 15 - Range equation of FSO link
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 16 - Range equation of FSO link (Continued...)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 17 - Atmospheric Turbulence
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 18 - Atmospheric Turbulence (Continued...)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 19 - Turbulence Mitigation techniques
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 20 - Underwater OWC Channel Model
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 21 - Underwater OWC Channel Model (Continued...)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 22 - Modulation Schemes for OWC, BER for OOK
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 23 - BER of M-PPM, BER of L-PPM
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 24 - Differential Pulse Interval Modulation (DPIM) and (DAPPM)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 25 - Variable Pulse Position Modulation (VPPM)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 26 - OFDM Basics
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 27 - Cyclic Prefix (CP), OFDM with CP, BER of OFDM System
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 28 - Frequency Offset in OFDM, PAPR in OFDM
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 29 - OFDM in VLC, DCO-OFDM
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 30 - ACO-OFDM
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 31 - Color Shift Keying (CSK)
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 32 - Higher order CSK
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 33 - NOMA
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 34 - NOMA VLC
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 35 - MIMO
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 36 - VLC based MIMO NOMA
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 37 - Power allocation in VLC based MIMO NOMA
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 38 - Hybrid Network LiFi and WiFi Coexistance
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 39 - Vehicle to Vehicle communication using Visible light
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 40 - Anand Singh Part - 1
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 41 - Anand Singh Part - 2
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 42 - Dilnasin lecture - 1
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 43 - Saswati Paramita
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 44 - Dilnashin Tutorial - 2
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 45 - Guriendar Prof Anand 001
Link NOC:Optical Wireless Communications for Beyond 5G Networks and IoT Lecture 46 - Rehana Prof Anand
Link NOC:VLSI Design Flow: RTL to GDS Lecture 1 - Basic Concepts of Integrated Circuit - I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 2 - Basic Concepts of Integrated Circuit - II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 3 - Overview of VLSI Design Flow - I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 4 - Overview of VLSI Design Flow - II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 5 - Tutorial 1
Link NOC:VLSI Design Flow: RTL to GDS Lecture 6 - Overview of VLSI Design Flow - III
Link NOC:VLSI Design Flow: RTL to GDS Lecture 7 - Overview of VLSI Design Flow - IV
Link NOC:VLSI Design Flow: RTL to GDS Lecture 8 - Overview of VLSI Design Flow - V
Link NOC:VLSI Design Flow: RTL to GDS Lecture 9 - Overview of VLSI Design Flow - VI
Link NOC:VLSI Design Flow: RTL to GDS Lecture 10 - Introduction to TCL
Link NOC:VLSI Design Flow: RTL to GDS Lecture 11 - Hardware Modeling: Introduction to Verilog - I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 12 - Hardware Modeling: Introduction to Verilog - II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 13 - Functional Verification using Simulation
Link NOC:VLSI Design Flow: RTL to GDS Lecture 14 - High-level synthesis using Bambu - Tutorial 3
Link NOC:VLSI Design Flow: RTL to GDS Lecture 15 - RTL Synthesis - Part I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 16 - RTL Synthesis - Part II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 17 - Logic Optimization - Part I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 18 - Simulation-based Verification using Icarus
Link NOC:VLSI Design Flow: RTL to GDS Lecture 19 - Logic Optimization - Part II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 20 - Logic Optimization - Part III
Link NOC:VLSI Design Flow: RTL to GDS Lecture 21 - Formal Verification - I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 22 - Logic Synthesis using Yosys
Link NOC:VLSI Design Flow: RTL to GDS Lecture 23 - Formal Verification - II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 24 - Formal Verification - III
Link NOC:VLSI Design Flow: RTL to GDS Lecture 25 - Formal Verification - IV
Link NOC:VLSI Design Flow: RTL to GDS Lecture 26 - Technology Library
Link NOC:VLSI Design Flow: RTL to GDS Lecture 27 - Logic Optimization using Yosys
Link NOC:VLSI Design Flow: RTL to GDS Lecture 28 - Static Timing Analysis - I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 29 - Static Timing Analysis - II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 30 - Static Timing Analysis - III
Link NOC:VLSI Design Flow: RTL to GDS Lecture 31 - Static Timing Analysis using OpenSTA
Link NOC:VLSI Design Flow: RTL to GDS Lecture 32 - Constraints - I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 33 - Constraints - II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 34 - Technology Mapping
Link NOC:VLSI Design Flow: RTL to GDS Lecture 35 - Timing-driven Optimization
Link NOC:VLSI Design Flow: RTL to GDS Lecture 36 - Technology Library and Constraints
Link NOC:VLSI Design Flow: RTL to GDS Lecture 37 - Power Analysis
Link NOC:VLSI Design Flow: RTL to GDS Lecture 38 - Power Optimization
Link NOC:VLSI Design Flow: RTL to GDS Lecture 39 - Basic Concepts of DFT
Link NOC:VLSI Design Flow: RTL to GDS Lecture 40 - Scan Design Flow
Link NOC:VLSI Design Flow: RTL to GDS Lecture 41 - Power Analysis using OpenSTA
Link NOC:VLSI Design Flow: RTL to GDS Lecture 42 - Automatic Test Pattern Generation (ATPG)
Link NOC:VLSI Design Flow: RTL to GDS Lecture 43 - Built-in Self Test (BIST)
Link NOC:VLSI Design Flow: RTL to GDS Lecture 44 - Basic Concepts for Physical Design - I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 45 - Basic Concepts for Physical Design - II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 46 - Installation of OpenRoad
Link NOC:VLSI Design Flow: RTL to GDS Lecture 47 - Chip Planning - I
Link NOC:VLSI Design Flow: RTL to GDS Lecture 48 - Chip Planning - II
Link NOC:VLSI Design Flow: RTL to GDS Lecture 49 - Placement
Link NOC:VLSI Design Flow: RTL to GDS Lecture 50 - Chip Planning and Placement
Link NOC:VLSI Design Flow: RTL to GDS Lecture 51 - Clock Tree Synthesis (CTS)
Link NOC:VLSI Design Flow: RTL to GDS Lecture 52 - Routing
Link NOC:VLSI Design Flow: RTL to GDS Lecture 53 - Post-layout Verification and Signoff
Link NOC:VLSI Design Flow: RTL to GDS Lecture 54 - Clock Tree Synthesis (CTS) and Routing
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 1 - Introduction to the Course
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 2 - Basics of Wireless Communication Systems
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 3 - Path-Loss Models for a Wireless Channel
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 4 - Log-Normal Shadowing
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 5 - Small-Scale Fading
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 6 - Statistical Multipath Channel Models
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 7 - MATLAB programming for Path Loss Models
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 8 - Statistical Multipath Channel Models - Part 1
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 9 - Statistical Multipath Channel Models - Part 2
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 10 - Digital Modulation and Detection (Binary Modulations) - Part 1
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 11 - Digital Modulation and Detection (Binary Modulations) - Part 2
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 12 - Digital Modulation and Detection (Binary Modulations) - Part 3
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 13 - MATLAB programming for Wireless Fading Channels
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 14 - Digital Modulation and Detection (Binary Modulations) - Part 1
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 15 - Digital Modulation and Detection (Binary Modulations) - Part 2
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 16 - Digital Modulation and Detection (M-ary Modulation) - Part 1
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 17 - Digital Modulation and Detection (M-ary Modulation) - Part 2
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 18 - Digital Modulation and Detection (M-ary Modulation) - Part 3
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 19 - MATLAB programming for Modulation Schemes
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 20 - Digital Modulation and Detection (GMSK)
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 21 - Performance of Digital Modulation over Wireless Channels
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 22 - Performance of Digital Modulation over Wireless Channels
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 23 - MATLAB programaming: Error performance in AWGN channel
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 24 - Receiver Diversity Techniques - Part 1
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 25 - Receiver Diversity Techniques - Part 2
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 26 - Receiver Diversity Techniques - Part 3
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 27 - Error performance in Fading Channel Part 1
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 28 - Error performance in Fading Channel Part 2
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 29 - Multi-Carrier Modulation and OFDM - Part 1
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 30 - Multi-Carrier Modulation and OFDM - Part 2
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 31 - Multi-Carrier Modulation and OFDM - Part 3
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 32 - Multi-Carrier Modulation and OFDM - Part 4
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 33 - Numerical on OFDM
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 34 - Programming for OFDM
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 35 - OFDM System with Cyclic Prefix
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 36 - OFDM Signal Transmission and OFDM System Design
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 37 - Advantages and Drawbacks of OFDM System
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 38 - OFDM Standards
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 39 - Multiple Access Schemes
Link NOC:Fundamentals of Wireless Communication (Hindi) Lecture 40 - Technologies for Wireless Cellular Standards
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 1 - Sensors and Transducers - Basics
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 2 - Introduction to Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 3 - Materials for sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 4 - Multidisciplinary Aspects of Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 5 - Introduction to Sensor Parameters
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 6 - Sensor Parameters - II
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 7 - Sensor Parameters - III
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 8 - Sensor Parameters - IV
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 9 - Sensor Parameters - V
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 10 - Numerical Examples
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 11 - Introduction: Physics of Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 12 - Capacitive Sensor Architecture
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 13 - Different Types of Capacitive Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 14 - Thermal Sensors Basics
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 15 - Dynamic Condition of Thermal Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 16 - Classification of Thermal Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 17 - Chemical Sensor Basics
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 18 - Electrochemical Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 19 - Impedimetric Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 20 - Numerical Examples
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 21 - Physics of Optical Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 22 - Physics of Magnetic Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 23 - Physics of Acoustic Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 24 - Physics of Microfluidic Sensors
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 25 - Various Sensor Geometries and Examples
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 26 - Microfabrication Technologies
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 27 - Deposition Techniques
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 28 - Physical Vapor Deposition
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 29 - Chemical Vapor Deposition
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 30 - Patterning Techniques
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 31 - Lithography Techniques
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 32 - Basics of Etching Techniques
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 33 - Dry Etching Techniques
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 34 - Optical and Electron Microscopy
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 35 - Other Microscopy Techniques
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 36 - Sensor System: Basic Circuits
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 37 - Amplifier Circuits
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 38 - Instrumentation Amplifier
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 39 - Filter Circuits
Link NOC:Sensor Technologies: Physics, Fabrication, and Circuits Lecture 40 - Sensor System: Experimental Demonstration
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 1 - Overview of Advanced Topics in Wireless Communication System - Part A
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 2 - Overview of Advanced Topics in Wireless Communication System - Part B
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 3 - Revision of Wireless Fundamentals - Part A
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 4 - Revision of Wireless Fundamentals - Part B
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 5 - Revision of Wireless Fundamentals - Part C
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 6 - Revision of Wireless Fundamentals - Part D
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 7 - Revision of Wireless Fundamentals - Part E
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 8 - Channel Capacity in AWGN channel
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 9 - Channel Capacity in flat fading channel
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 10 - Channel Capacity with Optimal Power Adaptation
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 11 - Tutorial 1 - MATLAB Tutorial: Channel Capacity
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 12 - Introduction to Channel Coding
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 13 - Channel Coding: Uncoded and Coded Performnace
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 14 - Introduction to Linear Block Codes
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 15 - Tutorial 2 - MATLAB Tutorial: Linear Block Codes
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 16 - Linear Block Codes: Error Detection
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 17 - Linear Block Codes: Error Correction
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 18 - Examples of Linear Block Codes
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 19 - Introduction to Convolution Codes
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 20 - Convolution Code: Decoder-Viterbi Algorithm
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 21 - Tutorial 3 - MATLAB Tutorial: Syndrome Identification and Correction
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 22 - Convolution Codes: State Diagram and Transfer Function
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 23 - Turbo codes
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 24 - Low Density Parity Check (LDPC) Codes: Encoding
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 25 - Low Density Parity Check (LDPC) Codes: Decoding
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 26 - Introduction to Polar Codes
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 27 - Polar Codes: Encoding and Decoding
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 28 - Introduciton to MIMO systems
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 29 - Spatial Diversity Techniques
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 30 - Introduction to Space Time Block Codes
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 31 - Tutorial 4 - Convolution Codes: Hard and Soft Decoding
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 32 - MIMO Zero-Forcing Receiver
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 33 - MIMO MMSE Receiver
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 34 - Introduction to MIMO SVD
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 35 - Diagonalization of MIMO channel
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 36 - Optimal Capacity of MIMO channel and MIMO Beamforming
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 37 - Tutorial 5 - Random Access Technoques: ALOHA and CSMA
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 38 - MIMO V-BLAST Receivers
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 39 - Introduction to Adaptive Modulation and Coding
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 40 - Modulation and Coding with Variable MQAM
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 41 - Conventional Multiple Access Schemes
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 42 - Next generation Multiple Access Schemes and Multi-User Channels
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 43 - Overview of Cellular and Wi-Fi Standards
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 44 - Evolution of Cellular and Wi-Fi Standards
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 45 - Tutorial 6 - MIMO SVD Example
Link NOC:Advanced topics in Wireless Communication (Hindi) Lecture 46 - Tutorial 7 - Rate Splitting Multiple Access
Link NOC:State Space Approach to Control System Analysis and Design Lecture 1 - Introduction
Link NOC:State Space Approach to Control System Analysis and Design Lecture 2 - Standard State-space Representation of Physical Systems
Link NOC:State Space Approach to Control System Analysis and Design Lecture 3 - Mathematical Modeling from First Principles
Link NOC:State Space Approach to Control System Analysis and Design Lecture 4 - Mathematical Modeling from First Principles
Link NOC:State Space Approach to Control System Analysis and Design Lecture 5 - State-space Representation of Transfer Functions
Link NOC:State Space Approach to Control System Analysis and Design Lecture 6 - State-space Representation of Transfer Functions (Continued...)
Link NOC:State Space Approach to Control System Analysis and Design Lecture 7 - Equivalent Dynamical Equations
Link NOC:State Space Approach to Control System Analysis and Design Lecture 8 - Transformation of State Equations into Canonical forms
Link NOC:State Space Approach to Control System Analysis and Design Lecture 9 - Solution of State Equations
Link NOC:State Space Approach to Control System Analysis and Design Lecture 10 - Solution of State Equations: Methods to determine the STM
Link NOC:State Space Approach to Control System Analysis and Design Lecture 11 - Simulation: An Overview
Link NOC:State Space Approach to Control System Analysis and Design Lecture 12 - Numerical Solution of State Equations
Link NOC:State Space Approach to Control System Analysis and Design Lecture 13 - Controllability
Link NOC:State Space Approach to Control System Analysis and Design Lecture 14 - Controllability
Link NOC:State Space Approach to Control System Analysis and Design Lecture 15 - Controllability
Link NOC:State Space Approach to Control System Analysis and Design Lecture 16 - Observability
Link NOC:State Space Approach to Control System Analysis and Design Lecture 17 - Lypunov's Stability - 1
Link NOC:State Space Approach to Control System Analysis and Design Lecture 18 - Lypunov's Stability - 2
Link NOC:State Space Approach to Control System Analysis and Design Lecture 19 - Lypunov's Stability - 3
Link NOC:State Space Approach to Control System Analysis and Design Lecture 20 - Pole Placement Design-I: Concept of State feedback
Link NOC:State Space Approach to Control System Analysis and Design Lecture 21 - Pole Placement Design-II: Properties of State Feedback
Link NOC:State Space Approach to Control System Analysis and Design Lecture 22 - Pole Placement Design-III: Pole placement formulae, Selection of Closed loop pole locations
Link NOC:State Space Approach to Control System Analysis and Design Lecture 23 - Linear Quadratic Optimal Control - Part 1
Link NOC:State Space Approach to Control System Analysis and Design Lecture 24 - Linear Quadratic Optimal Control - Part 2
Link NOC:State Space Approach to Control System Analysis and Design Lecture 25 - Linear Observers-Full Order Observer
Link NOC:State Space Approach to Control System Analysis and Design Lecture 26 - Linear Observers-Reduced Order Observer
Link NOC:State Space Approach to Control System Analysis and Design Lecture 27 - Separation Principle
Link NOC:State Space Approach to Control System Analysis and Design Lecture 28 - Multirate Sampling Controllers-Relationship between System state, multirate output samples and inputs
Link NOC:State Space Approach to Control System Analysis and Design Lecture 29 - Multirate Output Controller (MROC)
Link NOC:State Space Approach to Control System Analysis and Design Lecture 30 - Fast Output Sampling (FOS) Controller
Link NOC:State Space Approach to Control System Analysis and Design Lecture 31 - Periodic Output Feedback (POF) Controller
Link NOC:State Space Approach to Control System Analysis and Design Lecture 32 - Continuous-Time Kalman Filter
Link NOC:State Space Approach to Control System Analysis and Design Lecture 33 - Discrete-Time Kalman Filter
Link NOC:State Space Approach to Control System Analysis and Design Lecture 34 - Case Study of Nuclear Reactor: Nonlinear Model Development
Link NOC:State Space Approach to Control System Analysis and Design Lecture 35 - Case Study of Nuclear Reactor: Model Linearization
Link NOC:State Space Approach to Control System Analysis and Design Lecture 36 - Case Study of Nuclear Reactor: Output Feedback Control Design
Link NOC:State Space Approach to Control System Analysis and Design Lecture 37 - Case Study of Nuclear Reactor: Periodic Output Feedback Design
Link NOC:State Space Approach to Control System Analysis and Design Lecture 38 - Case Study of Nuclear Reactor: Fast Output Sampling based Control Design
Link NOC:State Space Approach to Control System Analysis and Design Lecture 39 - Case Study of Nuclear Reactor: Application of Kalman Filtering to Response Improvement of Vanadium SPND
Link NOC:Optimization Theory and Algorithms Lecture 1 - Introduction to the course - 1 - Prerequisites, key elements
Link NOC:Optimization Theory and Algorithms Lecture 2 - Introduction to the course - 2 - Types of problems
Link NOC:Optimization Theory and Algorithms Lecture 3 - Introduction to the course - 3 - An optimization example to live longer
Link NOC:Optimization Theory and Algorithms Lecture 4 - Summary of background material - Linear Algebra - I
Link NOC:Optimization Theory and Algorithms Lecture 5 - Summary of background material - Linear Algebra - II
Link NOC:Optimization Theory and Algorithms Lecture 6 - Summary of background material - Analysis - I
Link NOC:Optimization Theory and Algorithms Lecture 7 - Summary of background material - Analysis - II
Link NOC:Optimization Theory and Algorithms Lecture 8 - Summary of background material - Analysis - III
Link NOC:Optimization Theory and Algorithms Lecture 9 - Summary of background material - Calculus - I
Link NOC:Optimization Theory and Algorithms Lecture 10 - Summary of background material - Calculus - II
Link NOC:Optimization Theory and Algorithms Lecture 11 - Summary of background material - Calculus - III
Link NOC:Optimization Theory and Algorithms Lecture 12 - Example of Multivariate Differentiation
Link NOC:Optimization Theory and Algorithms Lecture 13 - Gradient of Quadratic form and product rule
Link NOC:Optimization Theory and Algorithms Lecture 14 - Directional derivative, hessian, and mean value theorem
Link NOC:Optimization Theory and Algorithms Lecture 15 - Unconstrained optimization - 1 - Roadmap of the course and Taylor’s theorem
Link NOC:Optimization Theory and Algorithms Lecture 16 - Unconstrained optimization - 2 - Identifying a local minima - 1st and 2nd order conditions
Link NOC:Optimization Theory and Algorithms Lecture 17 - Unconstrained optimization - 3 - Proof of 1st Order Condition
Link NOC:Optimization Theory and Algorithms Lecture 18 - Unconstrained optimization - 4 - overview of algorithms and choosing a descent direction
Link NOC:Optimization Theory and Algorithms Lecture 19 - Unconstrained optimization - 5 - properties of descent directions steepest descent direction
Link NOC:Optimization Theory and Algorithms Lecture 20 - Unconstrained optimization - 6 - properties of descent directions newton direction
Link NOC:Optimization Theory and Algorithms Lecture 21 - Unconstrained optimization - 7 - Trust Region Methods
Link NOC:Optimization Theory and Algorithms Lecture 22 - A MATLAB session
Link NOC:Optimization Theory and Algorithms Lecture 23 - Introduction to Line Search
Link NOC:Optimization Theory and Algorithms Lecture 24 - Wolfe Conditions
Link NOC:Optimization Theory and Algorithms Lecture 25 - Strong Wolfe Conditions
Link NOC:Optimization Theory and Algorithms Lecture 26 - Backtracking Line Search
Link NOC:Optimization Theory and Algorithms Lecture 27 - Line Search - Analysis
Link NOC:Optimization Theory and Algorithms Lecture 28 - Line Search - Convergence and Rate - 1
Link NOC:Optimization Theory and Algorithms Lecture 29 - Line Search - Convergence and Rate - 2
Link NOC:Optimization Theory and Algorithms Lecture 30 - Convergence analysis of a descent algorithm - 1
Link NOC:Optimization Theory and Algorithms Lecture 31 - Convergence analysis of a descent algorithm - 2
Link NOC:Optimization Theory and Algorithms Lecture 32 - Implementation of an optimization algorithm in MATLAB
Link NOC:Optimization Theory and Algorithms Lecture 33 - Conjugate Gradient Methods - Introduction and Proof
Link NOC:Optimization Theory and Algorithms Lecture 34 - Visualizing Quadratic Forms
Link NOC:Optimization Theory and Algorithms Lecture 35 - Orthogonality and Conjugacy
Link NOC:Optimization Theory and Algorithms Lecture 36 - Conjugate Directions Method - Introduction and Proof
Link NOC:Optimization Theory and Algorithms Lecture 37 - Discussion on doubts
Link NOC:Optimization Theory and Algorithms Lecture 38 - More on Conjugate Directions Method
Link NOC:Optimization Theory and Algorithms Lecture 39 - Ways of Generating Conjugate Directions
Link NOC:Optimization Theory and Algorithms Lecture 40 - Expanding Subspace Theorem
Link NOC:Optimization Theory and Algorithms Lecture 41 - Discussion on doubts
Link NOC:Optimization Theory and Algorithms Lecture 42 - Conjugate Gradient Method
Link NOC:Optimization Theory and Algorithms Lecture 43 - MATLAB implementation on CGM
Link NOC:Optimization Theory and Algorithms Lecture 44 - Discussion on doubts
Link NOC:Optimization Theory and Algorithms Lecture 45 - Preconditioned Conjugate Gradient - Part 1
Link NOC:Optimization Theory and Algorithms Lecture 46 - Preconditioned Conjugate Gradient - Part 2
Link NOC:Optimization Theory and Algorithms Lecture 47 - Preconditioned Conjugate Gradient - Part 3
Link NOC:Optimization Theory and Algorithms Lecture 48 - Non Linear Conjugate Gradient method
Link NOC:Optimization Theory and Algorithms Lecture 49 - Intro to Newton methods
Link NOC:Optimization Theory and Algorithms Lecture 50 - Newton methods and convergence
Link NOC:Optimization Theory and Algorithms Lecture 51 - Checks for positive definite matrices
Link NOC:Optimization Theory and Algorithms Lecture 52 - Hessian Modification
Link NOC:Optimization Theory and Algorithms Lecture 53 - Quasi newton methods
Link NOC:Optimization Theory and Algorithms Lecture 54 - BFGS method
Link NOC:Optimization Theory and Algorithms Lecture 55 - Least squares problems
Link NOC:Optimization Theory and Algorithms Lecture 56 - Linear least squares - Part 1
Link NOC:Optimization Theory and Algorithms Lecture 57 - Linear least squares - Part 2
Link NOC:Optimization Theory and Algorithms Lecture 58 - Solving least squares using SVD
Link NOC:Optimization Theory and Algorithms Lecture 59 - Non linear least squares
Link NOC:Optimization Theory and Algorithms Lecture 60 - Constrained Optimisation
Link NOC:Optimization Theory and Algorithms Lecture 61 - Single equality constraint
Link NOC:Optimization Theory and Algorithms Lecture 62 - Single inequality constraint - Part 1
Link NOC:Optimization Theory and Algorithms Lecture 63 - Single inequality constraint - Part 2
Link NOC:Optimization Theory and Algorithms Lecture 64 - Two inequality constraints example
Link NOC:Optimization Theory and Algorithms Lecture 65 - Linearised feasible directions
Link NOC:Optimization Theory and Algorithms Lecture 66 - Feasible sequences and tangent cone
Link NOC:Optimization Theory and Algorithms Lecture 67 - LICQ conditions
Link NOC:Optimization Theory and Algorithms Lecture 68 - KKT conditions (First order necessary conditions)
Link NOC:Optimization Theory and Algorithms Lecture 69 - Proof sketch for KKT conditions - Part 1
Link NOC:Optimization Theory and Algorithms Lecture 70 - Proof sketch for KKT conditions - Part 2
Link NOC:Optimization Theory and Algorithms Lecture 71 - Introduction to Projected gradient descent
Link NOC:Optimization Theory and Algorithms Lecture 72 - Projected gradient descent and proof of convergence
Link NOC:Optimization Theory and Algorithms Lecture 73 - Proof of convergence - Part 2
Link NOC:Optimization Theory and Algorithms Lecture 74 - Subgradients and Subdifferential
Link NOC:Optimization Theory and Algorithms Lecture 75 - Projection onto l1 ball
Link NOC:Optimization Theory and Algorithms Lecture 76 - Soft thresholding example
Link NOC:Optimization Theory and Algorithms Lecture 77 - Recap of Projection onto l1 ball
Link NOC:Optimization Theory and Algorithms Lecture 78 - KKT and duality introduction
Link NOC:Optimization Theory and Algorithms Lecture 79 - Intuition of duality and dual problem
Link NOC:Optimization Theory and Algorithms Lecture 80 - Proof of concavity of the dual problem - Part 1
Link NOC:Optimization Theory and Algorithms Lecture 81 - Proof of concavity of the dual problem - Part 2
Link NOC:Optimization Theory and Algorithms Lecture 82 - Proof of concavity of the dual problem - Part 3
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 1 - Introduction Wide Bandgap Devices
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 2 - Characterization Of Wide Bandgap Devices
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 3 - Static Characterization Of Power Devices
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 4 - Junction Capacitance Characterization Of Power Devices
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 5 - Fundamentals Of Dynamic Characterization
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 6 - Fundamentals Of Dynamic Characterization (Continued...)
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 7 - Gate Drive For Dynamic Characterization
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 8 - Gate Drive For Dynamic Characterization (Continued...)
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 9 - Gate Drive For Dynamic Characterization (Continued...)
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 10 - Gate Driver Protection
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 11 - Dpt-Protection
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 12 - Protection-Dpt
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 13 - Cross Talk Consideration
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 14 - Cross Talk Consideration (Continued...)
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 15 - Layout Design And Parasitic Management
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 16 - Layout Design And Parasitic Management (Continued...)
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 17 - Layout
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 18 - Heat Sink
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 19 - Heat Sink (Continued...)
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 20 - Electromagnetic Interference (EMI) - Part 1
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 21 - Electromagnetic Interference (EMI) - Part 2
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 22 - Electromagnetic Interference (EMI) - Part 3
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 23 - Electromagnetic Interference (EMI) - Passive Filter
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 24 - Electromagnetic Interference (EMI) - Active Filter
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 25 - Getting Started With Ltspice
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 26 - Getting Started With Ltspice - Part 1
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 27 - Getting Started With Ltspice - Part 2
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 28 - EMI Simulation with LTspice - Part 1
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 29 - EMI Simulation with LTspice - Part 2
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 30 - Power Density - Part 1
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 31 - Power Density - Part 2
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 32 - Introduction to PCB Design
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 33 - PCB Design
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 34 - WBG Applications - IMD
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 35 - WBG Applications - Renewable Energy Sources
Link NOC:Power Electronics with Wide Band Gap Devices Lecture 36 - WBG Applications - Reliability Analysis
Link NOC:Optimal Control Lecture 1 - Introduction and Performance Index
Link NOC:Optimal Control Lecture 2 - Basic Concepts of Calculus of Variation
Link NOC:Optimal Control Lecture 3 - The Basic Variational Problem
Link NOC:Optimal Control Lecture 4 - Fixed End Point Problem
Link NOC:Optimal Control Lecture 5 - Free End Point Problem
Link NOC:Optimal Control Lecture 6 - Free End Point Problem (Continued...)
Link NOC:Optimal Control Lecture 7 - Free End Point Problem (Continued...)
Link NOC:Optimal Control Lecture 8 - Free End Point Problem (Continued...)
Link NOC:Optimal Control Lecture 9 - Optimum of Functions with Conditions
Link NOC:Optimal Control Lecture 10 - Optimum of Functions with Conditions (Lagrange Multiplier Method)
Link NOC:Optimal Control Lecture 11 - Optimum of Functional with Conditions
Link NOC:Optimal Control Lecture 12 - Variational Approach to Optimal Control Systems
Link NOC:Optimal Control Lecture 13 - Variational Approach to Optimal Control Systems (Continued...)
Link NOC:Optimal Control Lecture 14 - Linear Quadratic Optimal Control Systems
Link NOC:Optimal Control Lecture 15 - Linear Quadratic Optimal Control Systems (Continued...)
Link NOC:Optimal Control Lecture 16 - Linear Quadratic Optimal Control Systems (Continued...)
Link NOC:Optimal Control Lecture 17 - Linear Quadratic Optimal Control Systems (Continued...)
Link NOC:Optimal Control Lecture 18 - Linear Quadratic Optimal Control Systems (Continued...)
Link NOC:Optimal Control Lecture 19 - Linear Quadratic Optimal Control Systems (Optimal Value of Performance Index)
Link NOC:Optimal Control Lecture 20 - Infinite Horizon Regulator Problem
Link NOC:Optimal Control Lecture 21 - Infinite Horizon Regulator Problem (Continued...)
Link NOC:Optimal Control Lecture 22 - Analytical Solution of MDRE - State Transition Matrix Approach
Link NOC:Optimal Control Lecture 23 - Analytical Solution of MDRE - Similarity Transformation Approach
Link NOC:Optimal Control Lecture 24 - Analytical Solution of MDRE - Similarity Transformation Approach (Continued...)
Link NOC:Optimal Control Lecture 25 - Frequency Domain Interpretation of LQR - Linear Time Invariant System
Link NOC:Optimal Control Lecture 26 - Frequency Domain Interpretation of LQR - Linear Time Invariant System (Continued...)
Link NOC:Optimal Control Lecture 27 - LQR with a Specified Degree of Stability
Link NOC:Optimal Control Lecture 28 - Inverse Matrix Riccati Equation
Link NOC:Optimal Control Lecture 29 - Linear Quadratic Tracking System
Link NOC:Optimal Control Lecture 30 - Discrete-Time Optimal Control Systems
Link NOC:Optimal Control Lecture 31 - Discrete-Time Optimal Control Systems (Continued...)
Link NOC:Optimal Control Lecture 32 - Discrete-Time Optimal Control Systems (Continued...)
Link NOC:Optimal Control Lecture 33 - Matrix Discrete Riccati Equation
Link NOC:Optimal Control Lecture 34 - Analytical Solution of Matrix Difference Riccati Equation
Link NOC:Optimal Control Lecture 35 - Analytical Solution of Matrix Difference Riccati Equation (Continued...)
Link NOC:Optimal Control Lecture 36 - Optimal Control using Dynamic Programming
Link NOC:Optimal Control Lecture 37 - The Hamilton-Jacobi-Bellman (HJB) Equation
Link NOC:Optimal Control Lecture 38 - LQR System Using HJB Equation
Link NOC:Optimal Control Lecture 39 - Time Optimal Control System - Constrained Input
Link NOC:Optimal Control Lecture 40 - Time Optimal Control System (Continued...)
Link NOC:Electrical Distribution System Analysis Lecture 1 - Introduction to Electrical Distribution System
Link NOC:Electrical Distribution System Analysis Lecture 2 - Components of Distribution System Substation and Busbar Layouts
Link NOC:Electrical Distribution System Analysis Lecture 3 - Components of Distribution System and Feeder Configurations
Link NOC:Electrical Distribution System Analysis Lecture 4 - Nature of Loads in a Distribution System
Link NOC:Electrical Distribution System Analysis Lecture 5 - Load Allocation in a Distribution System
Link NOC:Electrical Distribution System Analysis Lecture 6 - K Factors and Their Applications
Link NOC:Electrical Distribution System Analysis Lecture 7 - Analysis of Uniformly Distributed Loads
Link NOC:Electrical Distribution System Analysis Lecture 8 - Lumping Loads in Geometric Configurations: Rectangular
Link NOC:Electrical Distribution System Analysis Lecture 9 - Lumping Loads in Geometric Configurations: Triangular
Link NOC:Electrical Distribution System Analysis Lecture 10 - Impedance of Distribution Lines and Feeders - Part I
Link NOC:Electrical Distribution System Analysis Lecture 11 - Series Impedance of Distribution Lines and Feeders - Part II
Link NOC:Electrical Distribution System Analysis Lecture 12 - Models of Distribution Lines and Cables
Link NOC:Electrical Distribution System Analysis Lecture 13 - Modelling of Single-Phase and Three-Phase Transformers
Link NOC:Electrical Distribution System Analysis Lecture 14 - Modelling of Three-Phase Transformers - Part I
Link NOC:Electrical Distribution System Analysis Lecture 15 - Modelling of Three-Phase Transformers - Part II
Link NOC:Electrical Distribution System Analysis Lecture 16 - Modelling of Three-Phase Transformers - Part III
Link NOC:Electrical Distribution System Analysis Lecture 17 - Modelling of Three-Phase Transformers - Part IV
Link NOC:Electrical Distribution System Analysis Lecture 18 - Modelling of Step Voltage Regulators - Part I
Link NOC:Electrical Distribution System Analysis Lecture 19 - Modelling of Step Voltage Regulators - Part II
Link NOC:Electrical Distribution System Analysis Lecture 20 - Modelling of Step Voltage Regulators - Part III
Link NOC:Electrical Distribution System Analysis Lecture 21 - Modelling of Step Voltage Regulators - Part IV
Link NOC:Electrical Distribution System Analysis Lecture 22 - Load Models in Distribution System - Part I
Link NOC:Electrical Distribution System Analysis Lecture 23 - Load Models in Distribution System - Part II
Link NOC:Electrical Distribution System Analysis Lecture 24 - Modelling of Distributed Generation
Link NOC:Electrical Distribution System Analysis Lecture 25 - Applications and Modeling of Capacitor Banks
Link NOC:Electrical Distribution System Analysis Lecture 26 - Summary of Modelling of Distribution System Components
Link NOC:Electrical Distribution System Analysis Lecture 27 - Backward/Forward Sweep Load Flow Analysis - Part I
Link NOC:Electrical Distribution System Analysis Lecture 28 - Backward/Forward Sweep Load Flow Analysis - Part II
Link NOC:Electrical Distribution System Analysis Lecture 29 - Direct Approach Based Load Flow Analysis - Part I
Link NOC:Electrical Distribution System Analysis Lecture 30 - Direct Approach Based Load Flow Analysis - Part II
Link NOC:Electrical Distribution System Analysis Lecture 31 - Direct Approach Based Load Flow Analysis - Part III
Link NOC:Electrical Distribution System Analysis Lecture 32 - Direct Approach Based Load Flow Analysis: Weakly Meshed System
Link NOC:Electrical Distribution System Analysis Lecture 33 - Gauss Implicit Z-matrix Method
Link NOC:Electrical Distribution System Analysis Lecture 34 - Sequence Component Based Short Circuit Analysis
Link NOC:Electrical Distribution System Analysis Lecture 35 - Thevenin's Equivalent and Phase Variable Based Short Circuit Analysis
Link NOC:Electrical Distribution System Analysis Lecture 36 - Direct Approach for Short-Circuit Analysis: Introduction and LG Fault
Link NOC:Electrical Distribution System Analysis Lecture 37 - Direct Approach for Short-Circuit Analysis: LLG and LLLG Fault
Link NOC:Electrical Distribution System Analysis Lecture 38 - Direct Approach for Short-Circuit Analysis: LL Fault and Examples
Link NOC:Electrical Distribution System Analysis Lecture 39 - Direct Approach for Short-Circuit Analysis: Weakly Meshed System
Link NOC:Electrical Distribution System Analysis Lecture 40 - Applications of Distribution System Analysis
Link NOC:Electrical Distribution System Analysis Lecture 41 - Distributed Generation Integration Issues in Distribution System
Link NOC:Electrical Distribution System Analysis Lecture 42 - Distribution System Protection Issues
Link NOC:Electrical Distribution System Analysis Lecture 43 - Power Quality, Reliability and Availability
Link NOC:Electrical Distribution System Analysis Lecture 44 - Design and Operation - Part I
Link NOC:Electrical Distribution System Analysis Lecture 45 - Design and Operation - Part II
Link NOC:Electrical Distribution System Analysis Lecture 46 - Definition and objective of Volt-var control (VVC)
Link NOC:Electrical Distribution System Analysis Lecture 47 - Traditional approaches of VVC
Link NOC:Electrical Distribution System Analysis Lecture 48 - Distribution Automation
Link NOC:Electrical Distribution System Analysis Lecture 49 - SCADA-Based VVC and Integrated VVC
Link NOC:Electrical Distribution System Analysis Lecture 50 - Advanced technologies for VVC - Part I
Link NOC:Electrical Distribution System Analysis Lecture 51 - Advanced technologies for VVC - Part II
Link NOC:Electrical Distribution System Analysis Lecture 52 - System Planning - Part I
Link NOC:Electrical Distribution System Analysis Lecture 53 - System Planning - Part II
Link NOC:Electrical Distribution System Analysis Lecture 54 - Electricity Forecasting
Link NOC:Electrical Distribution System Analysis Lecture 55 - Case study: IIT Roorkee distribution system
Link NOC:Electrical Distribution System Analysis Lecture 56 - Optimization techniques
Link NOC:Electrical Distribution System Analysis Lecture 57 - Optimal location and sizing battery energy storage system (BESS)
Link NOC:Electrical Distribution System Analysis Lecture 58 - Practical Insights into Electrical Distribution Systems
Link NOC:Electrical Distribution System Analysis Lecture 59 - Field Deployment of BESS
Link NOC:Electrical Distribution System Analysis Lecture 60 - Emerging Technologies and Future Trends
Link NOC:Introduction to Smart Grid Lecture 1 - Introduction to Smart Grid - I
Link NOC:Introduction to Smart Grid Lecture 2 - Introduction to Smart Grid - II
Link NOC:Introduction to Smart Grid Lecture 3 - Architecture of smart grid system
Link NOC:Introduction to Smart Grid Lecture 4 - Standards for smart grid system
Link NOC:Introduction to Smart Grid Lecture 5 - Elements and Technologies of smart grid system - I
Link NOC:Introduction to Smart Grid Lecture 6 - Elements and Technologies of smart grid system - II
Link NOC:Introduction to Smart Grid Lecture 7 - Distributed Generation Resources - I
Link NOC:Introduction to Smart Grid Lecture 8 - Distributed Generation Resources - II
Link NOC:Introduction to Smart Grid Lecture 9 - Distributed Generation Resources - III
Link NOC:Introduction to Smart Grid Lecture 10 - Distributed Generation Resources - IV
Link NOC:Introduction to Smart Grid Lecture 11 - Wide Area Monitoring System - I
Link NOC:Introduction to Smart Grid Lecture 12 - Wide Area Monitoring System - II
Link NOC:Introduction to Smart Grid Lecture 13 - Phasor Estimation - I
Link NOC:Introduction to Smart Grid Lecture 14 - Phasor Estimation - II
Link NOC:Introduction to Smart Grid Lecture 15 - Digital Relays for Smart Grid Protection
Link NOC:Introduction to Smart Grid Lecture 16 - Islanding Detection Techniques - I
Link NOC:Introduction to Smart Grid Lecture 17 - Islanding Detection Techniques - II
Link NOC:Introduction to Smart Grid Lecture 18 - Islanding Detection Techniques - III
Link NOC:Introduction to Smart Grid Lecture 19 - Smart Grid Protection - I
Link NOC:Introduction to Smart Grid Lecture 20 - Smart Grid Protection - II
Link NOC:Introduction to Smart Grid Lecture 21 - Smart Grid Protection - III
Link NOC:Introduction to Smart Grid Lecture 22 - Smart Grid Protection - IV
Link NOC:Introduction to Smart Grid Lecture 23 - Modelling of Storage Devices
Link NOC:Introduction to Smart Grid Lecture 24 - Modelling of DC Smart Grid Components
Link NOC:Introduction to Smart Grid Lecture 25 - Operation and Control of AC Microgrid - I
Link NOC:Introduction to Smart Grid Lecture 26 - Operation and Control of AC Microgrid - Il
Link NOC:Introduction to Smart Grid Lecture 27 - Operation and Control of DC Microgrid - I
Link NOC:Introduction to Smart Grid Lecture 28 - Operation and Control of DC Microgrid - II
Link NOC:Introduction to Smart Grid Lecture 29 - Operation and Control of AC-DC hybrid Microgrid - I
Link NOC:Introduction to Smart Grid Lecture 30 - Operation and Control of AC-DC hybrid Microgrid - II
Link NOC:Introduction to Smart Grid Lecture 31 - Simulation and Case Study of AC Microgrid
Link NOC:Introduction to Smart Grid Lecture 32 - Simulation and Case Study of DC Microgrid
Link NOC:Introduction to Smart Grid Lecture 33 - Simulation and Case Study of AC-DC Hybrid Microgrid
Link NOC:Introduction to Smart Grid Lecture 34 - Demand Side Management in Smart Grid
Link NOC:Introduction to Smart Grid Lecture 35 - Demand Response Analysis of Smart Grid
Link NOC:Introduction to Smart Grid Lecture 36 - Energy Management
Link NOC:Introduction to Smart Grid Lecture 37 - Design of Smart Grid and Practical Smart Grid Case Study - I
Link NOC:Introduction to Smart Grid Lecture 38 - Design of Smart Grid and Practical Smart Grid Case Study - II
Link NOC:Introduction to Smart Grid Lecture 39 - System Analysis of AC/DC Smart Grid
Link NOC:Introduction to Smart Grid Lecture 40 - Conclusions
Link NOC:Facts Devices Lecture 1 - Introduction - I
Link NOC:Facts Devices Lecture 2 - Introduction - II
Link NOC:Facts Devices Lecture 3 - Switch Realization
Link NOC:Facts Devices Lecture 4 - PWM - I
Link NOC:Facts Devices Lecture 5 - PWM - II
Link NOC:Facts Devices Lecture 6 - Closed Loop Control
Link NOC:Facts Devices Lecture 7 - Multi Level Inverter - I
Link NOC:Facts Devices Lecture 8 - Multi Level Inverter - II
Link NOC:Facts Devices Lecture 9 - Multi Level Inverter - III
Link NOC:Facts Devices Lecture 10 - Shunt Compensator Analysis
Link NOC:Facts Devices Lecture 11 - Shunt Compensator TCR and TSC - I
Link NOC:Facts Devices Lecture 12 - Shunt Compensator TCR and TSC - II
Link NOC:Facts Devices Lecture 13 - Static Var Compensator - I
Link NOC:Facts Devices Lecture 14 - Static Var Compensator - II
Link NOC:Facts Devices Lecture 15 - STATCOM - I
Link NOC:Facts Devices Lecture 16 - STATCOM - II
Link NOC:Facts Devices Lecture 17 - STATCOM/SVC Comparisons
Link NOC:Facts Devices Lecture 18 - External Control Design of Static Var Compensator
Link NOC:Facts Devices Lecture 19 - DSTATCOM
Link NOC:Facts Devices Lecture 20 - Design of DSTATCOM
Link NOC:Facts Devices Lecture 21 - Series Compensator - I
Link NOC:Facts Devices Lecture 22 - Series Compensator - II
Link NOC:Facts Devices Lecture 23 - GCSC and SSSC
Link NOC:Facts Devices Lecture 24 - SSSC - II
Link NOC:Facts Devices Lecture 25 - SSSC - III and TSSC
Link NOC:Facts Devices Lecture 26 - TSSC - II and TCSC
Link NOC:Facts Devices Lecture 27 - TCSC Characteristics and Control
Link NOC:Facts Devices Lecture 28 - Voltage and Phase Angle Regulation
Link NOC:Facts Devices Lecture 29 - Voltage and Phase Angle Regulator Device - I
Link NOC:Facts Devices Lecture 30 - Voltage and Phase Angle Regulator Device - II
Link NOC:Facts Devices Lecture 31 - UPQC Introduction and Classification
Link NOC:Facts Devices Lecture 32 - UPQC Classification - I
Link NOC:Facts Devices Lecture 33 - Operation and Control of UPQC - II
Link NOC:Facts Devices Lecture 34 - Operation and Control of UPQC - III
Link NOC:Facts Devices Lecture 35 - UPFC
Link NOC:Facts Devices Lecture 36 - Control Structure of UPFC
Link NOC:Facts Devices Lecture 37 - Comparison of UPFC with PAR and Series Compensators
Link NOC:Facts Devices Lecture 38 - Interline Power Flow Controller (IPFC) - I
Link NOC:Facts Devices Lecture 39 - Interline Power Flow Controller (IPFC) - II
Link NOC:Facts Devices Lecture 40 - Practical Application and Conclusion
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 1 - Introduction to State Space
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 2 - State Space Representation
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 3 - State Space Representation: Companion Form (Controllable Canonical Form)
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 4 - State Space Representation: Extended Controllable Canonical Form
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 5 - State Space Representation: Observable Canonical Form
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 6 - State Space Representation: Diagonal Canonical Form - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 7 - State Space Representation: Diagonal Canonical Form - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 8 - State Space Representation: Jordan Canonical Form
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 9 - State Space Representation: Numerical Examples on State space Modelling - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 10 - State Space Representation: Numerical Examples on State space Modelling - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 11 - Modelling of Mechanical Systems in State Space
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 12 - Modelling of DC Servo Motor - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 13 - Modelling of DC Servo Motor - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 14 - Determination of Transfer Function from State Space Model - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 15 - Determination of Transfer Function from State Space Model - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 16 - Stability Analysis in State Space: Concept of Eigenvalues and Eigenvectors - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 17 - Stability Analysis in State Space - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 18 - Stability Analysis in State Space: Lyapunov Stability Analysis (Sylvester’s Criterion) - Part III
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 19 - Stability Analysis in State Space: Lyapunov Stability Analysis (Stability Criterion) - PartIV
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 20 - Stability Analysis in State Space: Lyapunov Stability Analysis (Direct Method) - Part V
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 21 - Concept of Diagonalization
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 22 - Solution of State Equation
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 23 - Solution of State Equation (Forced System)
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 24 - Steady State Error for State Space System
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 25 - State Transition Matrix - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 26 - State Transition Matrix - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 27 - State Transition Matrix using Cayley-Hamilton Theorem - Part III
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 28 - MATLAB Programming with State Space
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 29 - Controllability in State Space - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 30 - Controllability in State Space - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 31 - Observability in State Space - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 32 - Observability in State Space - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 33 - Pole Placement by State Feedback - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 34 - Pole Placement by State Feedback - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 35 - Pole Placement by State Feedback - Part III
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 36 - Tracking Problem in State Feedback Design - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 37 - Tracking Problem in State Feedback Design - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 38 - State Observer Design - Part I
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 39 - State Observer Design - Part II
Link NOC:Advanced Linear Continuous Control Systems: Applications with MATLAB Programming and Simulink Lecture 40 - State Observer Design - Part III
Link NOC:Computer Aided Power System Analysis Lecture 1 - Modeling of Power System Components
Link NOC:Computer Aided Power System Analysis Lecture 2 - Modeling of Power System Components (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 3 - Bus Admittance Matrix
Link NOC:Computer Aided Power System Analysis Lecture 4 - Bus Admittance Matrix with Mutual Impedance
Link NOC:Computer Aided Power System Analysis Lecture 5 - Bus Admittance Matrix with mutual impedance (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 6 - Power flow equations and classification of buses
Link NOC:Computer Aided Power System Analysis Lecture 7 - Basic Gauss - Seidel Numerical Method
Link NOC:Computer Aided Power System Analysis Lecture 8 - Gauss - Seidel Load Flow (GSLF)
Link NOC:Computer Aided Power System Analysis Lecture 9 - GSLF with Multiple Generators
Link NOC:Computer Aided Power System Analysis Lecture 10 - Example of GSLF
Link NOC:Computer Aided Power System Analysis Lecture 11 - Basics of Newton Raphson Numerical Method
Link NOC:Computer Aided Power System Analysis Lecture 12 - Newton - Raphson Load Flow (NRLF) in Polar Co-Ordinate
Link NOC:Computer Aided Power System Analysis Lecture 13 - NRLF in polar co-ordinate (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 14 - NRLF in polar co-ordinate (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 15 - NRLF (Polar) Algorithm and Example
Link NOC:Computer Aided Power System Analysis Lecture 16 - NRLF in rectangular coordinate
Link NOC:Computer Aided Power System Analysis Lecture 17 - NRLF in rectangular coordinate (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 18 - NRLF in rectangular coordinate (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 19 - Example of NRLF (Rectangular) Method
Link NOC:Computer Aided Power System Analysis Lecture 20 - Fast decoupled load flow (FDLF)
Link NOC:Computer Aided Power System Analysis Lecture 21 - FDLF (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 22 - FDLF (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 23 - AC- DC Load Flow
Link NOC:Computer Aided Power System Analysis Lecture 24 - AC- DC Load Flow (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 25 - AC- DC Load Flow (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 26 - Sparsity and Gaussian Elimination
Link NOC:Computer Aided Power System Analysis Lecture 27 - Gaussian Elimination Method
Link NOC:Computer Aided Power System Analysis Lecture 28 - Example of Gaussian Elimination Method
Link NOC:Computer Aided Power System Analysis Lecture 29 - Gaussian Elimination and Optimal Ordering
Link NOC:Computer Aided Power System Analysis Lecture 30 - Triangular Factorization
Link NOC:Computer Aided Power System Analysis Lecture 31 - LU Decomposition
Link NOC:Computer Aided Power System Analysis Lecture 32 - Introduction to Contingency Analysis
Link NOC:Computer Aided Power System Analysis Lecture 33 - Linear Sensitivity Factor
Link NOC:Computer Aided Power System Analysis Lecture 34 - Linear Sensitivity Factors (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 35 - Line outage sensitivity factor
Link NOC:Computer Aided Power System Analysis Lecture 36 - Line outage sensitivity factor (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 37 - Line outage sensitivity factor (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 38 - State Estimation Technique
Link NOC:Computer Aided Power System Analysis Lecture 39 - Weighted Least Square (WLS) Method
Link NOC:Computer Aided Power System Analysis Lecture 40 - WLS (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 41 - WLS Examples
Link NOC:Computer Aided Power System Analysis Lecture 42 - Error Analysis
Link NOC:Computer Aided Power System Analysis Lecture 43 - Error Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 44 - Bad Data Detection
Link NOC:Computer Aided Power System Analysis Lecture 45 - Power system state estimation
Link NOC:Computer Aided Power System Analysis Lecture 46 - Power system state estimation (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 47 - Power system state estimation (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 48 - Power system state estimation (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 49 - Fault Analysis
Link NOC:Computer Aided Power System Analysis Lecture 50 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 51 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 52 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 53 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 54 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 55 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 56 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 57 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 58 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 59 - Fault Analysis (Continued...)
Link NOC:Computer Aided Power System Analysis Lecture 60 - Fault Analysis (Continued...)
Link NOC:Advance Power Electronics and Control Lecture 1 - Introduction
Link NOC:Advance Power Electronics and Control Lecture 2 - Basic Concept of Switches
Link NOC:Advance Power Electronics and Control Lecture 3 - Device Physics - I
Link NOC:Advance Power Electronics and Control Lecture 4 - Device Physics - II
Link NOC:Advance Power Electronics and Control Lecture 5 - Device Physics - III
Link NOC:Advance Power Electronics and Control Lecture 6 - Device Physics - IV
Link NOC:Advance Power Electronics and Control Lecture 7 - Application and Analysis of Switches - I
Link NOC:Advance Power Electronics and Control Lecture 8 - Application and Analysis of Switches - II
Link NOC:Advance Power Electronics and Control Lecture 9 - Single Phase Converter
Link NOC:Advance Power Electronics and Control Lecture 10 - Single Phase Converters - II
Link NOC:Advance Power Electronics and Control Lecture 11 - Single Phase Converters - III
Link NOC:Advance Power Electronics and Control Lecture 12 - Three Phase Converters - I
Link NOC:Advance Power Electronics and Control Lecture 13 - Three Phase Converters - II
Link NOC:Advance Power Electronics and Control Lecture 14 - Multipulse Converters II
Link NOC:Advance Power Electronics and Control Lecture 15 - Effect of Source Inductance and PWM Rectifiers
Link NOC:Advance Power Electronics and Control Lecture 16 - PWM Rectifiers - II
Link NOC:Advance Power Electronics and Control Lecture 17 - PWM Rectifiers - III and Power Factor Improvement Techniques
Link NOC:Advance Power Electronics and Control Lecture 18 - PWM Rectifiers - IV and Power Factor Improvement Techniques - II
Link NOC:Advance Power Electronics and Control Lecture 19 - Power Factor Improvement Techniques III and Non Isolated DC- DC Converters
Link NOC:Advance Power Electronics and Control Lecture 20 - Non Isolated DC- DC Converters - II
Link NOC:Advance Power Electronics and Control Lecture 21 - Non Isolated and Isolated DC- DC Converters and Choppers
Link NOC:Advance Power Electronics and Control Lecture 22 - Isolated DC-DC Converters and Choppers
Link NOC:Advance Power Electronics and Control Lecture 23 - Isolated DC-DC Converters - II
Link NOC:Advance Power Electronics and Control Lecture 24 - Isolated DC-DC Converters - III
Link NOC:Advance Power Electronics and Control Lecture 25 - Isolated DC-DC Converters - IV and VSI and CSI
Link NOC:Advance Power Electronics and Control Lecture 26 - VSI and CSI
Link NOC:Advance Power Electronics and Control Lecture 27 - VSI and CSI II and MLI
Link NOC:Advance Power Electronics and Control Lecture 28 - PWM Techniques II and MLI
Link NOC:Advance Power Electronics and Control Lecture 29 - MLI II and ZSI
Link NOC:Advance Power Electronics and Control Lecture 30 - ZSI II and Space Vector Modulation (SVM)
Link NOC:Advance Power Electronics and Control Lecture 31 - SVM II and AC to AC Converters
Link NOC:Advance Power Electronics and Control Lecture 32 - SVM III and AC to AC Converters
Link NOC:Advance Power Electronics and Control Lecture 33 - Cycloconverters and Matrix Converters
Link NOC:Advance Power Electronics and Control Lecture 34 - Matrix Converter - II
Link NOC:Advance Power Electronics and Control Lecture 35 - Matrix Converter - III and Power Quality Mitigation Devices
Link NOC:Advance Power Electronics and Control Lecture 36 - Power Quality Mitigation Devices - II
Link NOC:Advance Power Electronics and Control Lecture 37 - Linear and Non Linear Control in Power Electronics - I
Link NOC:Advance Power Electronics and Control Lecture 38 - Linear and Non Linear Control in Power Electronics - II
Link NOC:Advance Power Electronics and Control Lecture 39 - Non-Linear Control in Power Electronics
Link NOC:Advance Power Electronics and Control Lecture 40 - Application and Conclusion
Link NOC:CMOS Digital VLSI Design Lecture 1 - MOS Transistor Basics - I
Link NOC:CMOS Digital VLSI Design Lecture 2 - MOS Transistor Basics - II
Link NOC:CMOS Digital VLSI Design Lecture 3 - MOS Transistor Basics - III
Link NOC:CMOS Digital VLSI Design Lecture 4 - MOS Parasitics and SPICE Model
Link NOC:CMOS Digital VLSI Design Lecture 5 - CMOS Inverter Basics - I
Link NOC:CMOS Digital VLSI Design Lecture 6 - CMOS Inverter Basics - II
Link NOC:CMOS Digital VLSI Design Lecture 7 - CMOS Inverter Basics - III
Link NOC:CMOS Digital VLSI Design Lecture 8 - Power Analysis - I
Link NOC:CMOS Digital VLSI Design Lecture 9 - Power Analysis - II
Link NOC:CMOS Digital VLSI Design Lecture 10 - SPICE Simulation - I
Link NOC:CMOS Digital VLSI Design Lecture 11 - SPICE Simulation - II
Link NOC:CMOS Digital VLSI Design Lecture 12 - Combinational Logic Design - I
Link NOC:CMOS Digital VLSI Design Lecture 13 - Combinational Logic Design - II
Link NOC:CMOS Digital VLSI Design Lecture 14 - Combinational Logic Design - III
Link NOC:CMOS Digital VLSI Design Lecture 15 - Combinational Logic Design - IV
Link NOC:CMOS Digital VLSI Design Lecture 16 - Combinational Logic Design - V
Link NOC:CMOS Digital VLSI Design Lecture 17 - Combinational Logic Design - VI
Link NOC:CMOS Digital VLSI Design Lecture 18 - Combinational Logic Design - VII
Link NOC:CMOS Digital VLSI Design Lecture 19 - Combinational Logic Design - VIII
Link NOC:CMOS Digital VLSI Design Lecture 20 - Combinational Logic Design - IX
Link NOC:CMOS Digital VLSI Design Lecture 21 - Combinational Logic Design - X
Link NOC:CMOS Digital VLSI Design Lecture 22 - Logical Efforts - I
Link NOC:CMOS Digital VLSI Design Lecture 23 - Logical Efforts - II
Link NOC:CMOS Digital VLSI Design Lecture 24 - Logical Efforts - III
Link NOC:CMOS Digital VLSI Design Lecture 25 - Sequential Logic Design - I
Link NOC:CMOS Digital VLSI Design Lecture 26 - Sequential Logic Design - II
Link NOC:CMOS Digital VLSI Design Lecture 27 - Sequential Logic Design - III
Link NOC:CMOS Digital VLSI Design Lecture 28 - Sequential Logic Design - IV
Link NOC:CMOS Digital VLSI Design Lecture 29 - Sequential Logic Design - V
Link NOC:CMOS Digital VLSI Design Lecture 30 - Sequential Logic Design - VI
Link NOC:CMOS Digital VLSI Design Lecture 31 - Sequential Logic Design - VII
Link NOC:CMOS Digital VLSI Design Lecture 32 - Sequential Logic Design - VIII
Link NOC:CMOS Digital VLSI Design Lecture 33 - Clocking Strategies for Sequential Design - I
Link NOC:CMOS Digital VLSI Design Lecture 34 - Clocking Strategies for Sequential Design - II
Link NOC:CMOS Digital VLSI Design Lecture 35 - Clocking Strategies for Sequential Design - III
Link NOC:CMOS Digital VLSI Design Lecture 36 - Clocking Strategies for Sequential Design - IV
Link NOC:CMOS Digital VLSI Design Lecture 37 - Sequential Logic Design - IX
Link NOC:CMOS Digital VLSI Design Lecture 38 - Clocking Strategies for Sequential Design - V
Link NOC:CMOS Digital VLSI Design Lecture 39 - Concept of Memory and its Designing - I
Link NOC:CMOS Digital VLSI Design Lecture 40 - Concept of Memory and its Designing - II
Link NOC:Microelectronics: Devices to Circuits Lecture 1 - Bipolar Junction Transistor : Physical structure and Modes of Operation
Link NOC:Microelectronics: Devices to Circuits Lecture 2 - Bipolar Junction Transistor : Modes of operation - I
Link NOC:Microelectronics: Devices to Circuits Lecture 3 - Bipolar Junction Transistor : Modes of operation - II
Link NOC:Microelectronics: Devices to Circuits Lecture 4 - BJT Operation in active mode Circuit symbol and conventions - I
Link NOC:Microelectronics: Devices to Circuits Lecture 5 - BJT Operation in active mode Circuit symbol and conventions - II
Link NOC:Microelectronics: Devices to Circuits Lecture 6 - BJT as an amplifier small circuit model - I
Link NOC:Microelectronics: Devices to Circuits Lecture 7 - BJT as an amplifier small circuit model - II
Link NOC:Microelectronics: Devices to Circuits Lecture 8 - BJT Small Signal Circuit Model - I
Link NOC:Microelectronics: Devices to Circuits Lecture 9 - BJT Small Signal Circuit Model - II
Link NOC:Microelectronics: Devices to Circuits Lecture 10 - BJT as a switch and Ebers Moll Model
Link NOC:Microelectronics: Devices to Circuits Lecture 11 - Simple BJT Inverter and second order effects
Link NOC:Microelectronics: Devices to Circuits Lecture 12 - BJT Second order effects - I
Link NOC:Microelectronics: Devices to Circuits Lecture 13 - BJT Second order effects - II
Link NOC:Microelectronics: Devices to Circuits Lecture 14 - MOS Transistor basics - I
Link NOC:Microelectronics: Devices to Circuits Lecture 15 - MOS Transistor basics - II
Link NOC:Microelectronics: Devices to Circuits Lecture 16 - MOS Transistor basics - III
Link NOC:Microelectronics: Devices to Circuits Lecture 17 - MOS Parasitic and SPICE Model
Link NOC:Microelectronics: Devices to Circuits Lecture 18 - CMOS Inverter Basics - I
Link NOC:Microelectronics: Devices to Circuits Lecture 19 - CMOS Inverter Basics - II
Link NOC:Microelectronics: Devices to Circuits Lecture 20 - CMOS Inverter Basics - III
Link NOC:Microelectronics: Devices to Circuits Lecture 21 - Power Analysis - I
Link NOC:Microelectronics: Devices to Circuits Lecture 22 - Logical Efforts - I
Link NOC:Microelectronics: Devices to Circuits Lecture 23 - Fabrication-Process - I
Link NOC:Microelectronics: Devices to Circuits Lecture 24 - Fabrication-Process - II
Link NOC:Microelectronics: Devices to Circuits Lecture 25 - Biasing of Amplifier and its behaviour as an Analog switch - I
Link NOC:Microelectronics: Devices to Circuits Lecture 26 - Biasing of Amplifier and its behaviour as an Analog switch - II
Link NOC:Microelectronics: Devices to Circuits Lecture 27 - Biasing of Amplifier and its behaviour as an Analog switch - III
Link NOC:Microelectronics: Devices to Circuits Lecture 28 - CMOS CS/CG/CD Amplifier Configuration
Link NOC:Microelectronics: Devices to Circuits Lecture 29 - CMOS CG/CD Amplifier Configuration
Link NOC:Microelectronics: Devices to Circuits Lecture 30 - Internal CAP Models and high frequency Modelling - I
Link NOC:Microelectronics: Devices to Circuits Lecture 31 - Internal CAP Models and high frequency Modelling - II
Link NOC:Microelectronics: Devices to Circuits Lecture 32 - JFET, Structure and Operation
Link NOC:Microelectronics: Devices to Circuits Lecture 33 - Multistage and Differential Amplifier - I
Link NOC:Microelectronics: Devices to Circuits Lecture 34 - Multistage and Differential Amplifier - II
Link NOC:Microelectronics: Devices to Circuits Lecture 35 - MOS Differential Amplifier - I
Link NOC:Microelectronics: Devices to Circuits Lecture 36 - MOS Differential Amplifier - II
Link NOC:Microelectronics: Devices to Circuits Lecture 37 - Small signal operation and Differential Amplifiers - I
Link NOC:Microelectronics: Devices to Circuits Lecture 38 - Small signal operation and Differential Amplifiers - II
Link NOC:Microelectronics: Devices to Circuits Lecture 39 - Multistage Amplifier with SPICE Simulation
Link NOC:Microelectronics: Devices to Circuits Lecture 40 - S-Domain Analysis, Transfer Function, Poles and Zeros - I
Link NOC:Microelectronics: Devices to Circuits Lecture 41 - S-Domain Analysis, Transfer Function, Poles and Zeros - II
Link NOC:Microelectronics: Devices to Circuits Lecture 42 - High Frequency response of CS and CE Amplifier
Link NOC:Microelectronics: Devices to Circuits Lecture 43 - High Frequency response of CC and SF Configuration
Link NOC:Microelectronics: Devices to Circuits Lecture 44 - Frequency response of Differential Amplifier
Link NOC:Microelectronics: Devices to Circuits Lecture 45 - General Feedback Structure and properties of negative Feedback
Link NOC:Microelectronics: Devices to Circuits Lecture 46 - Basic Feedback Topologies
Link NOC:Microelectronics: Devices to Circuits Lecture 47 - Design of feedback amplifier for all configuration
Link NOC:Microelectronics: Devices to Circuits Lecture 48 - Stability and amplifier poles
Link NOC:Microelectronics: Devices to Circuits Lecture 49 - Bode plots and Frequency Plot
Link NOC:Microelectronics: Devices to Circuits Lecture 50 - Ideal Operational Amplifier and its terminal
Link NOC:Microelectronics: Devices to Circuits Lecture 51 - Op-amp as a Integrator and Differentiator
Link NOC:Microelectronics: Devices to Circuits Lecture 52 - Large Signal Operation of Op-amp and second order effects
Link NOC:Microelectronics: Devices to Circuits Lecture 53 - Combinational logic design - I
Link NOC:Microelectronics: Devices to Circuits Lecture 54 - Combinational logic design - II
Link NOC:Microelectronics: Devices to Circuits Lecture 55 - Combinational logic design - III
Link NOC:Microelectronics: Devices to Circuits Lecture 56 - Combinational logic design - IV
Link NOC:Microelectronics: Devices to Circuits Lecture 57 - Sequential logic design - I
Link NOC:Microelectronics: Devices to Circuits Lecture 58 - Clocking strategies For Sequential design - I
Link NOC:Microelectronics: Devices to Circuits Lecture 59 - Clocking strategies For Sequential design - II
Link NOC:Microelectronics: Devices to Circuits Lecture 60 - Memory Design
Link NOC:DC Microgrid Lecture 1 - Overview of Microgrids
Link NOC:DC Microgrid Lecture 2 - Concept of Microgrids
Link NOC:DC Microgrid Lecture 3 - Microgrid and distributed generation
Link NOC:DC Microgrid Lecture 4 - Microgrid vs Conventional Power System
Link NOC:DC Microgrid Lecture 5 - AC and DC Microgrid with Distributed Energy Resources (AC Microgrid Part)
Link NOC:DC Microgrid Lecture 6 - AC and DC Microgrid with Distributed Energy Resources (AC Microgrid Part) (Continued...)
Link NOC:DC Microgrid Lecture 7 - Power Electronics for Microgrid
Link NOC:DC Microgrid Lecture 8 - Power Electronic Converters in Microgrid Applications
Link NOC:DC Microgrid Lecture 9 - Power Electronic Converters in Microgrid Applications (Power Electronic for Interfacing )
Link NOC:DC Microgrid Lecture 10 - Power Electronic Converters in Microgrid Applications (Converter Modulation Techniques)
Link NOC:DC Microgrid Lecture 11 - Modeling of converters in microgrid power system (AC/DC and DC/AC Converters Modeling)
Link NOC:DC Microgrid Lecture 12 - Modeling of Power Converters in Microgrid Power System (DC/DC Converter Modeling and Control)
Link NOC:DC Microgrid Lecture 13 - Modeling of Renewable Energy Resources (Modeling of Wind Energy System)
Link NOC:DC Microgrid Lecture 14 - Modeling of Renewable Energy Resources (Modeling of Photovoltaic System)
Link NOC:DC Microgrid Lecture 15 - Modeling of Energy Storage System
Link NOC:DC Microgrid Lecture 16 - Microgrid Dynamics and Modeling
Link NOC:DC Microgrid Lecture 17 - Microgrid Dynamics and Modeling (Continued...)
Link NOC:DC Microgrid Lecture 18 - Microgrid Operation Modes and Standards - Part I
Link NOC:DC Microgrid Lecture 19 - Microgrid Operation Modes and Standards - Part II
Link NOC:DC Microgrid Lecture 20 - Microgrid Control Architectures
Link NOC:DC Microgrid Lecture 21 - Microgrid Control Architectures (Continued...)
Link NOC:DC Microgrid Lecture 22 - Intelligent Microgrid Operation and Control
Link NOC:DC Microgrid Lecture 23 - Intelligent Microgrid Operation and Control (Continued...)
Link NOC:DC Microgrid Lecture 24 - Intelligent Microgrid Operation and Control (Continued...)
Link NOC:DC Microgrid Lecture 25 - Energy Management in Microgrid System (Continued...)
Link NOC:DC Microgrid Lecture 26 - DC Microgrid System Architecture and AC Interface
Link NOC:DC Microgrid Lecture 27 - DC Microgrid System Architecture and AC Interface (Continued...)
Link NOC:DC Microgrid Lecture 28 - DC Microgrid System Architecture and AC Interface (Continued...)
Link NOC:DC Microgrid Lecture 29 - DC Microgrid Dynamics and Modeling
Link NOC:DC Microgrid Lecture 30 - DC Microgrid Dynamics and Modeling (Continued...)
Link NOC:DC Microgrid Lecture 31 - Control of DC Microgrid System
Link NOC:DC Microgrid Lecture 32 - Control of DC Microgrid System (Continued...)
Link NOC:DC Microgrid Lecture 33 - Applications of DC Microgrids
Link NOC:DC Microgrid Lecture 34 - Stability in Microgrid
Link NOC:DC Microgrid Lecture 35 - Stability Analysis of DC Microgrid
Link NOC:DC Microgrid Lecture 36 - Stability Analysis of DC Microgrid (Continued...)
Link NOC:DC Microgrid Lecture 37 - DC Microgrid stabilization strategies (Passive damping method)
Link NOC:DC Microgrid Lecture 38 - DC Microgrid Stabilization Strategies (Impedance/Admittance stability criteria)
Link NOC:DC Microgrid Lecture 39 - DC microgrid stabilization using nonlinear Techniques
Link NOC:DC Microgrid Lecture 40 - General Summary of DC Microgrids
Link NOC:Power Quality Improvement Technique Lecture 1 - Introduction
Link NOC:Power Quality Improvement Technique Lecture 2 - Overview - I
Link NOC:Power Quality Improvement Technique Lecture 3 - Overview - II
Link NOC:Power Quality Improvement Technique Lecture 4 - Overview - III
Link NOC:Power Quality Improvement Technique Lecture 5 - Source of Poor Power Quality - I
Link NOC:Power Quality Improvement Technique Lecture 6 - Source of Poor Power Quality - II
Link NOC:Power Quality Improvement Technique Lecture 7 - AC Power Quality Standard
Link NOC:Power Quality Improvement Technique Lecture 8 - Improvement of Power Factor by Capacitor
Link NOC:Power Quality Improvement Technique Lecture 9 - Passive Filter - I
Link NOC:Power Quality Improvement Technique Lecture 10 - Passive Filter - II
Link NOC:Power Quality Improvement Technique Lecture 11 - Passive Filter Design - I
Link NOC:Power Quality Improvement Technique Lecture 12 - Passive Filter Design - II
Link NOC:Power Quality Improvement Technique Lecture 13 - PWM Rectifier - I
Link NOC:Power Quality Improvement Technique Lecture 14 - PWM Rectifier - II
Link NOC:Power Quality Improvement Technique Lecture 15 - PWM Rectifier - III
Link NOC:Power Quality Improvement Technique Lecture 16 - Three phase converters - I
Link NOC:Power Quality Improvement Technique Lecture 17 - Three Phase Converters - II and multi pulse Converters
Link NOC:Power Quality Improvement Technique Lecture 18 - Three Phase Converters - III and multi-pulse Converters
Link NOC:Power Quality Improvement Technique Lecture 19 - VSI and CSI
Link NOC:Power Quality Improvement Technique Lecture 20 - Multilevel Inverter - I
Link NOC:Power Quality Improvement Technique Lecture 21 - Multilevel Inverter - II
Link NOC:Power Quality Improvement Technique Lecture 22 - Multilevel Inverter - III
Link NOC:Power Quality Improvement Technique Lecture 23 - PWM for Voltage Source Inverter - I
Link NOC:Power Quality Improvement Technique Lecture 24 - PWM for Voltage Source Inverter - II
Link NOC:Power Quality Improvement Technique Lecture 25 - PWM for Voltage Source inverter - III
Link NOC:Power Quality Improvement Technique Lecture 26 - PWM for Voltage Source Inverter - IV
Link NOC:Power Quality Improvement Technique Lecture 27 - Operation and Control of Grid-Connected VSC
Link NOC:Power Quality Improvement Technique Lecture 28 - Grid Connected VSC with inner Current Control
Link NOC:Power Quality Improvement Technique Lecture 29 - Shunt Active Power Filter - I
Link NOC:Power Quality Improvement Technique Lecture 30 - Shunt Active Power Filter - II
Link NOC:Power Quality Improvement Technique Lecture 31 - Shunt Active Power Filter - III
Link NOC:Power Quality Improvement Technique Lecture 32 - Shunt Active Power Filter - IV
Link NOC:Power Quality Improvement Technique Lecture 33 - Hybrid Active Power Filter - I
Link NOC:Power Quality Improvement Technique Lecture 34 - Hybrid Active power Filter - II
Link NOC:Power Quality Improvement Technique Lecture 35 - Hybrid Shunt Active Power Filter
Link NOC:Power Quality Improvement Technique Lecture 36 - UPQC Introduction and classification
Link NOC:Power Quality Improvement Technique Lecture 37 - UPQC Classification
Link NOC:Power Quality Improvement Technique Lecture 38 - Operation and Control of UPQC
Link NOC:Power Quality Improvement Technique Lecture 39 - Control of UPQC
Link NOC:Power Quality Improvement Technique Lecture 40 - Conclusion
Link NOC:Power System Protection and Switchgear Lecture 1 - Fundamentals of Protective Relaying - I
Link NOC:Power System Protection and Switchgear Lecture 2 - Fundamentals of Protective Relaying - II
Link NOC:Power System Protection and Switchgear Lecture 3 - Fundamentals of Protective Relaying - III
Link NOC:Power System Protection and Switchgear Lecture 4 - Fundamentals of Protective Relaying - IV
Link NOC:Power System Protection and Switchgear Lecture 5 - Fundamentals of Protective Relaying - V
Link NOC:Power System Protection and Switchgear Lecture 6 - Current based Relaying Scheme - I
Link NOC:Power System Protection and Switchgear Lecture 7 - Current based Relaying Scheme - II
Link NOC:Power System Protection and Switchgear Lecture 8 - Current based Relaying Scheme - III
Link NOC:Power System Protection and Switchgear Lecture 9 - Current based Relaying Scheme - IV
Link NOC:Power System Protection and Switchgear Lecture 10 - Current based Relaying Scheme - V
Link NOC:Power System Protection and Switchgear Lecture 11 - Current based Relaying Scheme - VI
Link NOC:Power System Protection and Switchgear Lecture 12 - Current based Relaying Scheme - VII
Link NOC:Power System Protection and Switchgear Lecture 13 - Current based Relaying Scheme - VIII
Link NOC:Power System Protection and Switchgear Lecture 14 - Protection of Transmission Lines using Distance Relays - I
Link NOC:Power System Protection and Switchgear Lecture 15 - Protection of Transmission Lines using Distance Relays - II
Link NOC:Power System Protection and Switchgear Lecture 16 - Protection of Transmission Lines using Distance Relays - III
Link NOC:Power System Protection and Switchgear Lecture 17 - Protection of Transmission Lines using Distance Relays - IV
Link NOC:Power System Protection and Switchgear Lecture 18 - Protection of Transmission Lines using Distance Relays - V
Link NOC:Power System Protection and Switchgear Lecture 19 - Carrier Aided Schemes for Transmission Lines - I
Link NOC:Power System Protection and Switchgear Lecture 20 - Carrier Aided Schemes for Transmission Lines - II
Link NOC:Power System Protection and Switchgear Lecture 21 - Carrier Aided Schemes for Transmission Lines - III
Link NOC:Power System Protection and Switchgear Lecture 22 - Carrier Aided Schemes for Transmission Lines - IV
Link NOC:Power System Protection and Switchgear Lecture 23 - Auto-reclosing and Synchronizing - I
Link NOC:Power System Protection and Switchgear Lecture 24 - Auto-reclosing and Synchronizing - II
Link NOC:Power System Protection and Switchgear Lecture 25 - Auto-reclosing and Synchronizing - III
Link NOC:Power System Protection and Switchgear Lecture 26 - Protection of Transformers - I
Link NOC:Power System Protection and Switchgear Lecture 27 - Protection of Transformers - II
Link NOC:Power System Protection and Switchgear Lecture 28 - Protection of Generators - I
Link NOC:Power System Protection and Switchgear Lecture 29 - Protection of Generators - II
Link NOC:Power System Protection and Switchgear Lecture 30 - Protection of Induction Motors
Link NOC:Power System Protection and Switchgear Lecture 31 - Protection of Busbars
Link NOC:Power System Protection and Switchgear Lecture 32 - Protection against Transients and Surges along with System Response to Severe Upsets - I
Link NOC:Power System Protection and Switchgear Lecture 33 - Protection against Transients and Surges along with System Response to Severe Upsets - II
Link NOC:Power System Protection and Switchgear Lecture 34 - Arc Interruption Theory in Circuit Breaker - I
Link NOC:Power System Protection and Switchgear Lecture 35 - Arc Interruption Theory in Circuit Breaker - II
Link NOC:Power System Protection and Switchgear Lecture 36 - Arc Interruption Theory in Circuit Breaker - III
Link NOC:Power System Protection and Switchgear Lecture 37 - Arc Interruption Theory in Circuit Breaker - IV
Link NOC:Power System Protection and Switchgear Lecture 38 - Types of Circuit Breakers
Link NOC:Power System Protection and Switchgear Lecture 39 - Testing, Commissioning and Maintenance of Relays - I
Link NOC:Power System Protection and Switchgear Lecture 40 - Testing, Commissioning and Maintenance of Relays - II
Link NOC:RF Transceiver of Design Lecture 1 - Basic of Wireless Communication - I
Link NOC:RF Transceiver of Design Lecture 2 - Basic of Wireless Communication - II
Link NOC:RF Transceiver of Design Lecture 3 - Basic of Wireless Communication - III
Link NOC:RF Transceiver of Design Lecture 4 - Basic of Wireless Communication - IV
Link NOC:RF Transceiver of Design Lecture 5 - Basic of Wireless Communication - V
Link NOC:RF Transceiver of Design Lecture 6 - Basic of Wireless Communication - VI
Link NOC:RF Transceiver of Design Lecture 7 - Noise in RF Systems - I
Link NOC:RF Transceiver of Design Lecture 8 - Noise in RF Systems - II
Link NOC:RF Transceiver of Design Lecture 9 - Noise in RF Systems - III
Link NOC:RF Transceiver of Design Lecture 10 - Noise in RF Systems - IV
Link NOC:RF Transceiver of Design Lecture 11 - Non-Linearity in RF Systems - I
Link NOC:RF Transceiver of Design Lecture 12 - Non-Linearity in RF Systems - II
Link NOC:RF Transceiver of Design Lecture 13 - Non-Linearity in RF Systems - III
Link NOC:RF Transceiver of Design Lecture 14 - Transceiver Architecture - I
Link NOC:RF Transceiver of Design Lecture 15 - Transceiver Architecture - II
Link NOC:RF Transceiver of Design Lecture 16 - Transceiver Architecture - III
Link NOC:RF Transceiver of Design Lecture 17 - Transceiver Architecture - IV
Link NOC:RF Transceiver of Design Lecture 18 - Transceiver Architecture - V
Link NOC:RF Transceiver of Design Lecture 19 - Transceiver Architecture - VI
Link NOC:RF Transceiver of Design Lecture 20 - Transceiver Architecture - VII
Link NOC:RF Transceiver of Design Lecture 21 - Active Devices - I
Link NOC:RF Transceiver of Design Lecture 22 - Active Devices - II
Link NOC:RF Transceiver of Design Lecture 23 - Active Devices - III
Link NOC:RF Transceiver of Design Lecture 24 - Active Devices - IV
Link NOC:RF Transceiver of Design Lecture 25 - Passive Components and Impedance Matching - I
Link NOC:RF Transceiver of Design Lecture 26 - Passive Components and Impedance Matching - II
Link NOC:RF Transceiver of Design Lecture 27 - Passive Components and Impedance Matching - III
Link NOC:RF Transceiver of Design Lecture 28 - Passive Components and Impedance Matching - IV
Link NOC:RF Transceiver of Design Lecture 29 - Passive Components and Impedance Matching - V
Link NOC:RF Transceiver of Design Lecture 30 - Passive Components and Impedance Matching - VI
Link NOC:RF Transceiver of Design Lecture 31 - Passive Components and Impedance Matching - VII
Link NOC:RF Transceiver of Design Lecture 32 - Stability and Amplifier Design - I
Link NOC:RF Transceiver of Design Lecture 33 - Stability and Amplifier Design - II
Link NOC:RF Transceiver of Design Lecture 34 - Stability and Amplifier Design - III
Link NOC:RF Transceiver of Design Lecture 35 - Stability and Amplifier Design - IV
Link NOC:RF Transceiver of Design Lecture 36 - Low Noise Amplifier Design - I
Link NOC:RF Transceiver of Design Lecture 37 - Low Noise Amplifier Design - II
Link NOC:RF Transceiver of Design Lecture 38 - Low Noise Amplifier Design - III
Link NOC:RF Transceiver of Design Lecture 39 - Low Noise Amplifier Design - IV
Link NOC:RF Transceiver of Design Lecture 40 - Low Noise Amplifier Design - V
Link NOC:RF Transceiver of Design Lecture 41 - Low Noise Amplifier Design - VI
Link NOC:RF Transceiver of Design Lecture 42 - Mixer Design - I
Link NOC:RF Transceiver of Design Lecture 43 - Mixer Design - II
Link NOC:RF Transceiver of Design Lecture 44 - Mixer Design - III
Link NOC:RF Transceiver of Design Lecture 45 - Mixer Design - IV
Link NOC:RF Transceiver of Design Lecture 46 - Mixer Design - V
Link NOC:RF Transceiver of Design Lecture 47 - Mixer Design - VI
Link NOC:RF Transceiver of Design Lecture 48 - Mixer Design - VII
Link NOC:RF Transceiver of Design Lecture 49 - Mixer Design - VIII
Link NOC:RF Transceiver of Design Lecture 50 - Mixer Design - IX
Link NOC:RF Transceiver of Design Lecture 51 - Oscillator Design - I
Link NOC:RF Transceiver of Design Lecture 52 - Oscillator Design - II
Link NOC:RF Transceiver of Design Lecture 53 - Oscillator Design - III
Link NOC:RF Transceiver of Design Lecture 54 - Oscillator Design - IV
Link NOC:RF Transceiver of Design Lecture 55 - Power Amplifier Design - I
Link NOC:RF Transceiver of Design Lecture 56 - Power Amplifier Design - II
Link NOC:RF Transceiver of Design Lecture 57 - Power Amplifier Design - III
Link NOC:RF Transceiver of Design Lecture 58 - Basics of Phase Locked Loop - I
Link NOC:RF Transceiver of Design Lecture 59 - Basics of Phase Locked Loop - II
Link NOC:RF Transceiver of Design Lecture 60 - System Level Considerations
Link NOC:RF Transceiver of Design Lecture 61 - RF Testing and Measurement Techniques
Link NOC:VLSI Physical Design with Timing Analysis Lecture 1 - Introduction to VLSI Design
Link NOC:VLSI Physical Design with Timing Analysis Lecture 2 - Introduction to VLSI Physical Design
Link NOC:VLSI Physical Design with Timing Analysis Lecture 3 - Complexity Analysis for Algorithms
Link NOC:VLSI Physical Design with Timing Analysis Lecture 4 - Graphs for Physical Design
Link NOC:VLSI Physical Design with Timing Analysis Lecture 5 - Graph searching Algorithms
Link NOC:VLSI Physical Design with Timing Analysis Lecture 6 - Spanning Tree and Shortest Path Algorithms
Link NOC:VLSI Physical Design with Timing Analysis Lecture 7 - Overview of Timing Analysis
Link NOC:VLSI Physical Design with Timing Analysis Lecture 8 - Timing Arcs and Unateness
Link NOC:VLSI Physical Design with Timing Analysis Lecture 9 - Delay Parameters of a Combinational Circuit
Link NOC:VLSI Physical Design with Timing Analysis Lecture 10 - Delay Parameters of a Sequential Circuit
Link NOC:VLSI Physical Design with Timing Analysis Lecture 11 - Timing Analysis in a Sequential Circuit
Link NOC:VLSI Physical Design with Timing Analysis Lecture 12 - STA in Sequential Circuit with Clock Skew - I
Link NOC:VLSI Physical Design with Timing Analysis Lecture 13 - STA in Sequential Circuit with Clock Skew - II
Link NOC:VLSI Physical Design with Timing Analysis Lecture 14 - STA in Sequential Circuit with Clock Jitter
Link NOC:VLSI Physical Design with Timing Analysis Lecture 15 - STA considering OCV and CRPR (Setup check)
Link NOC:VLSI Physical Design with Timing Analysis Lecture 16 - STA considering OCV and CRPR (Hold check)
Link NOC:VLSI Physical Design with Timing Analysis Lecture 17 - STA for Combinational Circuits - I
Link NOC:VLSI Physical Design with Timing Analysis Lecture 18 - STA for Combinational Circuits - II
Link NOC:VLSI Physical Design with Timing Analysis Lecture 19 - Introduction to Partitioning - I
Link NOC:VLSI Physical Design with Timing Analysis Lecture 20 - Introduction to Partitioning - II
Link NOC:VLSI Physical Design with Timing Analysis Lecture 21 - Partitioning Algorithms
Link NOC:VLSI Physical Design with Timing Analysis Lecture 22 - Kernighan-Lin (KL) Algorithm
Link NOC:VLSI Physical Design with Timing Analysis Lecture 23 - Fidduccia-Mattheyeses (FM) Algorithm
Link NOC:VLSI Physical Design with Timing Analysis Lecture 24 - Introduction to Floorplanning
Link NOC:VLSI Physical Design with Timing Analysis Lecture 25 - Floorplanning Representations
Link NOC:VLSI Physical Design with Timing Analysis Lecture 26 - Floorplanning Algorithms - 1
Link NOC:VLSI Physical Design with Timing Analysis Lecture 27 - Floorplanning Algorithms - 2
Link NOC:VLSI Physical Design with Timing Analysis Lecture 28 - Pin Assignment and Power - Ground Routing
Link NOC:VLSI Physical Design with Timing Analysis Lecture 29 - Introduction to Placement
Link NOC:VLSI Physical Design with Timing Analysis Lecture 30 - Wirelength estimation techniques
Link NOC:VLSI Physical Design with Timing Analysis Lecture 31 - Min-cut placement
Link NOC:VLSI Physical Design with Timing Analysis Lecture 32 - Placement Algorithms
Link NOC:VLSI Physical Design with Timing Analysis Lecture 33 - Placement algorithms and legalization
Link NOC:VLSI Physical Design with Timing Analysis Lecture 34 - Introduction to Clock Tree Synthesis
Link NOC:VLSI Physical Design with Timing Analysis Lecture 35 - Clock Routing Algorithms - I
Link NOC:VLSI Physical Design with Timing Analysis Lecture 36 - Clock Routing Algorithms - II
Link NOC:VLSI Physical Design with Timing Analysis Lecture 37 - Clock Routing Algorithms - III
Link NOC:VLSI Physical Design with Timing Analysis Lecture 38 - Introduction and Optimization Goals - Global Routing
Link NOC:VLSI Physical Design with Timing Analysis Lecture 39 - Single net routing (Rectilinear routing)
Link NOC:VLSI Physical Design with Timing Analysis Lecture 40 - Global Routing in the connectivity graph
Link NOC:VLSI Physical Design with Timing Analysis Lecture 41 - Finding Shortest Paths with Dijkstra's Algorithm
Link NOC:VLSI Physical Design with Timing Analysis Lecture 42 - Full-Netlist Routing
Link NOC:VLSI Physical Design with Timing Analysis Lecture 43 - Introduction: Detailed Routing
Link NOC:VLSI Physical Design with Timing Analysis Lecture 44 - Channel Routing Algorithms - I
Link NOC:VLSI Physical Design with Timing Analysis Lecture 45 - Channel Routing Algorithms - II
Link NOC:VLSI Physical Design with Timing Analysis Lecture 46 - Switchbox and Over the cell routing
Link NOC:VLSI Physical Design with Timing Analysis Lecture 47 - Timing Constraints in latch based system
Link NOC:VLSI Physical Design with Timing Analysis Lecture 48 - Timing Constraints in Pulsed Latch-based System
Link NOC:VLSI Physical Design with Timing Analysis Lecture 49 - Time Borrowing in Latch
Link NOC:VLSI Physical Design with Timing Analysis Lecture 50 - Crosstalk Analysis
Link NOC:VLSI Physical Design with Timing Analysis Lecture 51 - Standard Cell Library
Link NOC:VLSI Physical Design with Timing Analysis Lecture 52 - Low Power Cells in Standard Cell Library
Link NOC:VLSI Physical Design with Timing Analysis Lecture 53 - Sub-threshold Standard Cell Library
Link NOC:VLSI Physical Design with Timing Analysis Lecture 54 - Timing Library for Standard Cells
Link NOC:VLSI Physical Design with Timing Analysis Lecture 55 - PDK and Other files
Link NOC:VLSI Physical Design with Timing Analysis Lecture 56 - Open-Source Tool Installation and Qflow
Link NOC:VLSI Physical Design with Timing Analysis Lecture 57 - Open-Source tool - YOSYS
Link NOC:VLSI Physical Design with Timing Analysis Lecture 58 - OpenSTA Static Timing Analyzer
Link NOC:VLSI Physical Design with Timing Analysis Lecture 59 - OpenROAD Physical Synthesis Flow - I
Link NOC:VLSI Physical Design with Timing Analysis Lecture 60 - OpenROAD Physical Synthesis Flow - II
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 1 - Introduction
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 2 - Carson’s Line
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 3 - Carson’s Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 4 - Three-phase Transmission Line - 1
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 5 - Three-phase Transmission Line - 2
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 6 - Three-phase Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 7 - Three-phase Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 8 - Three-phase Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 9 - Transposition of Transmission Line
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 10 - Transposition of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 11 - Sequence impedance of Transmission Line
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 12 - Sequence impedance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 13 - Impedance of Transmission Line
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 14 - Impedance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 15 - Impedance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 16 - Impedance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 17 - Impedance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 18 - Impedance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 19 - Impedance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 20 - Impedance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 21 - Capacitance of Transmission Line
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 22 - Capacitance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 23 - Capacitance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 24 - Capacitance of Transmission Line (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 25 - Transformer Modeling (Introduction, YgYg0)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 26 - Transformer Modeling (YgYg0, YgYg4)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 27 - Transformer Modeling (YgD1)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 28 - Transformer Modeling (YgD1, YD1)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 29 - Transformer Modeling (YD1) (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 30 - Transformer Modeling (YD1) (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 31 - Transformer Modeling (YYg0, Dd0)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 32 - Transformer Modeling (Dd0, Overall Summary)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 33 - Three-Phase Load Flow (Network Modelling)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 34 - Three-Phase Load Flow (Formation of bus admittance matrix)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 35 - Three-Phase Load Flow (Formation of bus admittance matrix) (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 36 - Three-Phase Load Flow (Formation of bus admittance matrix) (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 37 - Three-Phase Load Flow (General expression of bus admittance matrix)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 38 - Three-Phase Load Flow (General expression of bus injected current)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 39 - Three-Phase Load Flow (Derivation of power flow equations)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 40 - Three-Phase Load Flow (Concept of Generator Internal Bus)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 41 - Three-Phase Load Flow (Unknown Quantities)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 42 - Three-Phase Load Flow (Classification of Unknown Quantities)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 43 - Three-Phase Load Flow (Classification of Known Quantities)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 44 - Three-Phase Load Flow (Equations Relating Known and Unknown Quantities)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 45 - Three-Phase Load Flow (NRLF Polar Method)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 46 - Three-Phase Load Flow (General Definitions and Dimensions of Jacobian Submatrices)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 47 - Three-Phase Load Flow (Derivation of J1)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 48 - Three-Phase Load Flow (Derivation of J1) (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 49 - Three-Phase Load Flow (Derivation of J2)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 50 - Three-Phase Load Flow (Derivation of J3)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 51 - Three-Phase Load Flow (Derivation of J3) (Continued...)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 52 - Three-Phase Load Flow (Derivation of J4, J5, J6, J7, J8)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 53 - Three-Phase Load Flow (Derivation of J9)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 54 - Three-Phase Load Flow (Derivation of J9, J10)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 55 - Three-Phase Load Flow (Derivation of J11, J12)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 56 - Three-Phase Load Flow (Derivation of J13, J14, J15 and J16, Algorithm and Example)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 57 - Three-Phase State Estimation (Revision of WLS State Estimation Method for Balanced Systems)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 58 - Three-Phase State Estimation (Derivation of Measurement Functions for Unbalanced Systems)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 59 - Three-Phase State Estimation (Derivation of Measurement Functions for Unbalanced Systems)
Link NOC:Modeling, Analysis and Estimation of Three Phase Unbalanced Power Network Lecture 60 - Three-Phase State Estimation (General Structure of Jacobian Matrix, Example)
Link An Introduction to Electronics Systems Packaging Lecture 1 - Introduction and Objectives of the course
Link An Introduction to Electronics Systems Packaging Lecture 2 - Definition of a system and history of semiconductors
Link An Introduction to Electronics Systems Packaging Lecture 3 - Products and levels of packaging
Link An Introduction to Electronics Systems Packaging Lecture 4 - Packaging aspects of handheld products; Case studies in applications
Link An Introduction to Electronics Systems Packaging Lecture 5 - Case Study (continued); Definition of PWB, summary and Questions for review
Link An Introduction to Electronics Systems Packaging Lecture 6 - Basics of Semiconductor and Process flowchart; Video on “Sand-to-Silicon”
Link An Introduction to Electronics Systems Packaging Lecture 7 - Wafer fabrication, inspection and testing
Link An Introduction to Electronics Systems Packaging Lecture 8 - Wafer packaging; Packaging evolution; Chip connection choices
Link An Introduction to Electronics Systems Packaging Lecture 9 - Wire bonding, TAB and flipchip-1
Link An Introduction to Electronics Systems Packaging Lecture 10 - Wire bonding, TAB and flipchip-2; Tutorials
Link An Introduction to Electronics Systems Packaging Lecture 11 - Why packaging? & Single chip packages or modules (SCM)
Link An Introduction to Electronics Systems Packaging Lecture 12 - Commonly used packages and advanced packages; Materials in packages
Link An Introduction to Electronics Systems Packaging Lecture 13 - Advances packages (continued); Thermal mismatch in packages; Current trends in packaging
Link An Introduction to Electronics Systems Packaging Lecture 14 - Multichip modules (MCM)-types; System-in-package (SIP); Packaging roadmaps; Hybrid circuits; Quiz on packages
Link An Introduction to Electronics Systems Packaging Lecture 15 - Electrical Issues – I; Resistive Parasitic
Link An Introduction to Electronics Systems Packaging Lecture 16 - Electrical Issues – II; Capacitive and Inductive Parasitic
Link An Introduction to Electronics Systems Packaging Lecture 17 - Electrical Issues – III; Layout guidelines and the Reflection problem
Link An Introduction to Electronics Systems Packaging Lecture 18 - Electrical Issues – IV; Interconnection
Link An Introduction to Electronics Systems Packaging Lecture 19 - Quick Tutorial on packages; Benefits from CAD; Introduction to DFM, DFR & DFT
Link An Introduction to Electronics Systems Packaging Lecture 20 - Components of a CAD package and its highlights
Link An Introduction to Electronics Systems Packaging Lecture 21 - Design Flow considerations; Beginning a circuit design with schematic work and component layout
Link An Introduction to Electronics Systems Packaging Lecture 22 - Demo and examples of layout and routing; Technology file generation from CAD; DFM check list and design rules; Design for Reliability
Link An Introduction to Electronics Systems Packaging Lecture 23 - Review of CAD output files for PCB fabrication; Photo plotting and mask generation
Link An Introduction to Electronics Systems Packaging Lecture 24 - Process flow-chart; Vias; PWB substrates
Link An Introduction to Electronics Systems Packaging Lecture 25 - Substrates continued; Video highlights; Surface preparation
Link An Introduction to Electronics Systems Packaging Lecture 26 - Photoresist and application methods; UV exposure and developing; Printing technologies for PWBs
Link An Introduction to Electronics Systems Packaging Lecture 27 - PWB etching; Resist stripping; Screen-printing technology
Link An Introduction to Electronics Systems Packaging Lecture 28 - Through-hole manufacture process steps; Panel and pattern plating methods
Link An Introduction to Electronics Systems Packaging Lecture 29 - Video highlights on manufacturing; Solder mask for PWBs; Multilayer PWBs; Introduction to microvias
Link An Introduction to Electronics Systems Packaging Lecture 30 - Microvia technology and Sequential build-up technology process flow for high-density interconnects
Link An Introduction to Electronics Systems Packaging Lecture 31 - Conventional Vs HDI technologies; Flexible circuits; Tutorial session
Link An Introduction to Electronics Systems Packaging Lecture 32 - SMD benefits; Design issues; Introduction to soldering
Link An Introduction to Electronics Systems Packaging Lecture 33 - Reflow and Wave Soldering methods to attach SMDs
Link An Introduction to Electronics Systems Packaging Lecture 34 - Solders; Wetting of solders; Flux and its properties; Defects in wave soldering
Link An Introduction to Electronics Systems Packaging Lecture 35 - Vapour phase soldering, BGA soldering and Desoldering/Repair; SMT failures
Link An Introduction to Electronics Systems Packaging Lecture 36 - SMT failure library and Tin Whiskers
Link An Introduction to Electronics Systems Packaging Lecture 37 - Tin-lead and lead-free solders; Phase diagrams; Thermal profiles for reflow soldering; Lead-free alloys
Link An Introduction to Electronics Systems Packaging Lecture 38 - Lead-free solder considerations; Green electronics; RoHS compliance and e-waste recycling issues
Link An Introduction to Electronics Systems Packaging Lecture 39 - Thermal Design considerations in systems packaging
Link An Introduction to Electronics Systems Packaging Lecture 40 - Introduction to embedded passives; Need for embedded passives; Design Library; Embedded resistor processes
Link An Introduction to Electronics Systems Packaging Lecture 41 - Embedded capacitors; Processes for embedding capacitors; Case study examples; Summary of materials in packaging
Link An Introduction to Electronics Systems Packaging Lecture 42 - Chapter-wise summary
Link Power Electronics and Distributed Generation Lecture 1 - Course introduction and overview
Link Power Electronics and Distributed Generation Lecture 2 - Distributed generation technologies
Link Power Electronics and Distributed Generation Lecture 3 - Distributed storage technologies
Link Power Electronics and Distributed Generation Lecture 4 - Distribution system protection
Link Power Electronics and Distributed Generation Lecture 5 - Circuit breaker coordination
Link Power Electronics and Distributed Generation Lecture 6 - Symmetrical component analysis and sequence excitation
Link Power Electronics and Distributed Generation Lecture 7 - Modeling of distribution system components
Link Power Electronics and Distributed Generation Lecture 8 - Protection components
Link Power Electronics and Distributed Generation Lecture 9 - Impact of distributed generation of distribution protection
Link Power Electronics and Distributed Generation Lecture 10 - Consumption and distribution grounding
Link Power Electronics and Distributed Generation Lecture 11 - Islanding of distribution systems
Link Power Electronics and Distributed Generation Lecture 12 - Modeling of islanded distribution systems
Link Power Electronics and Distributed Generation Lecture 13 - Distribution system problems and examples
Link Power Electronics and Distributed Generation Lecture 14 - Distribution system problems and examples continued
Link Power Electronics and Distributed Generation Lecture 15 - Anti-islanding methods
Link Power Electronics and Distributed Generation Lecture 16 - Solid state circuit switching
Link Power Electronics and Distributed Generation Lecture 17 - Relaying for distributed generation
Link Power Electronics and Distributed Generation Lecture 18 - Feeder voltage regulation
Link Power Electronics and Distributed Generation Lecture 19 - Grounding, distribution protection coordination problems and examples
Link Power Electronics and Distributed Generation Lecture 20 - Ring and network distribution
Link Power Electronics and Distributed Generation Lecture 21 - Economic evaluation of DG systems
Link Power Electronics and Distributed Generation Lecture 22 - Design for effective initial cost
Link Power Electronics and Distributed Generation Lecture 23 - Single phase inverters
Link Power Electronics and Distributed Generation Lecture 24 - DC bus design in voltage source inverter
Link Power Electronics and Distributed Generation Lecture 25 - Electrolytic capacitor reliability and lifetime
Link Power Electronics and Distributed Generation Lecture 26 - Inverter switching and average model
Link Power Electronics and Distributed Generation Lecture 27 - Common mode and differential mode model of inverters
Link Power Electronics and Distributed Generation Lecture 28 - Two leg single phase inverter
Link Power Electronics and Distributed Generation Lecture 29 - Distribution system problems, and examples
Link Power Electronics and Distributed Generation Lecture 30 - DG evaluation problems and examples
Link Power Electronics and Distributed Generation Lecture 31 - Switch selection in two level voltage source inverters and loss evaluation
Link Power Electronics and Distributed Generation Lecture 32 - Thermal model, management and cycling failure of IGBT modules
Link Power Electronics and Distributed Generation Lecture 33 - Semiconductor switch design reliability considerations
Link Power Electronics and Distributed Generation Lecture 34 - AC filters for grid connected inverters
Link Power Electronics and Distributed Generation Lecture 35 - AC inductor design and need for LCL filter
Link Power Electronics and Distributed Generation Lecture 36 - LCL filter design
Link Power Electronics and Distributed Generation Lecture 37 - Examples in power electronic design for DG systems
Link Power Electronics and Distributed Generation Lecture 38 - Examples in power electronic design for DG systems continued
Link Power Electronics and Distributed Generation Lecture 39 - Higher order passive damping design for LCL filters
Link Power Electronics and Distributed Generation Lecture 40 - Balance of hardware component for inverters in DG systems
Link Pulse width Modulation for Power Electronic Converters Lecture 1 - Electronic switches
Link Pulse width Modulation for Power Electronic Converters Lecture 2 - DC - DC converters
Link Pulse width Modulation for Power Electronic Converters Lecture 3 - DC - AC converters
Link Pulse width Modulation for Power Electronic Converters Lecture 4 - Multilevel converters - I
Link Pulse width Modulation for Power Electronic Converters Lecture 5 - Multilevel converters - II
Link Pulse width Modulation for Power Electronic Converters Lecture 6 - Applications of voltage source converter - I
Link Pulse width Modulation for Power Electronic Converters Lecture 7 - Applications of voltage source converter - II
Link Pulse width Modulation for Power Electronic Converters Lecture 8 - Applications of voltage source converter - III
Link Pulse width Modulation for Power Electronic Converters Lecture 9 - Purpose of PWM - I
Link Pulse width Modulation for Power Electronic Converters Lecture 10 - Purpose of PWM - II
Link Pulse width Modulation for Power Electronic Converters Lecture 11 - Low switching frequency PWM - I
Link Pulse width Modulation for Power Electronic Converters Lecture 12 - Low switching frequency PWM - II
Link Pulse width Modulation for Power Electronic Converters Lecture 13 - Selective harmonic elimination
Link Pulse width Modulation for Power Electronic Converters Lecture 14 - Off-line optimized pulsewidth modulation
Link Pulse width Modulation for Power Electronic Converters Lecture 15 - Sine-triangle pulsewidth modulation
Link Pulse width Modulation for Power Electronic Converters Lecture 16 - Harmonic injection pulsewidth modulation
Link Pulse width Modulation for Power Electronic Converters Lecture 17 - Bus-clamping pulsewidth modulation
Link Pulse width Modulation for Power Electronic Converters Lecture 18 - Triangle-comparison based PWM for three-phase inverter
Link Pulse width Modulation for Power Electronic Converters Lecture 19 - Concept of space vector
Link Pulse width Modulation for Power Electronic Converters Lecture 20 - Conventional space vector PWM
Link Pulse width Modulation for Power Electronic Converters Lecture 21 - Space vector based bus-clamping PWM
Link Pulse width Modulation for Power Electronic Converters Lecture 22 - Space vector based advanced bus-clamping PWM
Link Pulse width Modulation for Power Electronic Converters Lecture 23 - Harmonic analysis of PWM techniques
Link Pulse width Modulation for Power Electronic Converters Lecture 24 - Analysis of RMS line current ripple using the notion of stator flux ripple
Link Pulse width Modulation for Power Electronic Converters Lecture 25 - Evaluation of RMS line current ripple using the notion of stator flux ripple
Link Pulse width Modulation for Power Electronic Converters Lecture 26 - Analysis and design of PWM techniques from line current ripple perspective
Link Pulse width Modulation for Power Electronic Converters Lecture 27 - Instantaneous and average dc link current in a voltage source inverter
Link Pulse width Modulation for Power Electronic Converters Lecture 28 - DC link current and DC capacitor current in a voltage source inverter
Link Pulse width Modulation for Power Electronic Converters Lecture 29 - Analysis of torque ripple in induction motor drives - I
Link Pulse width Modulation for Power Electronic Converters Lecture 30 - Analysis of torque ripple in induction motor drives - II
Link Pulse width Modulation for Power Electronic Converters Lecture 31 - Evaluation of conduction loss in three-phase inverter
Link Pulse width Modulation for Power Electronic Converters Lecture 32 - Evaluation of switching loss in three-phase inverter
Link Pulse width Modulation for Power Electronic Converters Lecture 33 - Design of PWM for reduced switching loss in three-phase inverter
Link Pulse width Modulation for Power Electronic Converters Lecture 34 - Effect of dead-time on inverter output voltage for continuous PWM schemes
Link Pulse width Modulation for Power Electronic Converters Lecture 35 - Effect of dead-time on inverter output voltage for bus-clamping PWM schemes
Link Pulse width Modulation for Power Electronic Converters Lecture 36 - Analysis of overmodulation in sine-triangle PWM from space vector perspective
Link Pulse width Modulation for Power Electronic Converters Lecture 37 - Overmodulation in space vector modulated inverter
Link Pulse width Modulation for Power Electronic Converters Lecture 38 - PWM for three-level neutral-point-clamped inverter - I
Link Pulse width Modulation for Power Electronic Converters Lecture 39 - PWM for three-level neutral-point-clamped inverter - II
Link Pulse width Modulation for Power Electronic Converters Lecture 40 - PWM for three-level neutral-point-clamped inverter - III
Link Switched Mode Power Conversion Lecture 1 - Introduction to DC-DC converter
Link Switched Mode Power Conversion Lecture 2 - Diode
Link Switched Mode Power Conversion Lecture 3 - Controlled Switches
Link Switched Mode Power Conversion Lecture 4 - Prior Art
Link Switched Mode Power Conversion Lecture 5 - Inductor
Link Switched Mode Power Conversion Lecture 6 - Transformer
Link Switched Mode Power Conversion Lecture 7 - Capacitor
Link Switched Mode Power Conversion Lecture 8 - Issues related to switches
Link Switched Mode Power Conversion Lecture 9 - Energy storage - Capacitor
Link Switched Mode Power Conversion Lecture 10 - Energy storage - Inductor
Link Switched Mode Power Conversion Lecture 11 - Primitive Converter
Link Switched Mode Power Conversion Lecture 12 - Non-Isolated converter - I
Link Switched Mode Power Conversion Lecture 13 - Non-Isolated converter - II
Link Switched Mode Power Conversion Lecture 14 - Isolated Converters - I
Link Switched Mode Power Conversion Lecture 15 - Isolated Converters - II
Link Switched Mode Power Conversion Lecture 16 - Conduction Mode
Link Switched Mode Power Conversion Lecture 17 - Problem set - I
Link Switched Mode Power Conversion Lecture 18 - Problem set - II
Link Switched Mode Power Conversion Lecture 19 - Modeling DC-DC converters
Link Switched Mode Power Conversion Lecture 20 - State space representation - I
Link Switched Mode Power Conversion Lecture 21 - State Space representation - II
Link Switched Mode Power Conversion Lecture 22 - Circuit Averaging - I
Link Switched Mode Power Conversion Lecture 23 - Circuit Averaging - II
Link Switched Mode Power Conversion Lecture 24 - State Space Model of Boost Converter
Link Switched Mode Power Conversion Lecture 25 - DC-DC converter controller
Link Switched Mode Power Conversion Lecture 26 - Controller Structure
Link Switched Mode Power Conversion Lecture 27 - PID Controller - I
Link Switched Mode Power Conversion Lecture 28 - PID Controller - II
Link Switched Mode Power Conversion Lecture 29 - PID Controller - III
Link Switched Mode Power Conversion Lecture 30 - Implementation of PID controller
Link Switched Mode Power Conversion Lecture 31 - Pulse Width Modulator
Link Switched Mode Power Conversion Lecture 32 - Controller Design - I
Link Switched Mode Power Conversion Lecture 33 - Controller Design - II
Link Switched Mode Power Conversion Lecture 34 - Controllers and Sensing Circuit
Link Switched Mode Power Conversion Lecture 35 - Regulation of Multiple outputs - I
Link Switched Mode Power Conversion Lecture 36 - Regulation of Multiple outputs - II
Link Switched Mode Power Conversion Lecture 37 - Current Control
Link Switched Mode Power Conversion Lecture 38 - Unity Power Factor Converter
Link Switched Mode Power Conversion Lecture 39 - Magnetic Design
Link Switched Mode Power Conversion Lecture 40 - DC-DC Converter Design
Link Basic Electrical Technology Lecture 1 - Basic Electrical Technology
Link Basic Electrical Technology Lecture 2 - Passive Components
Link Basic Electrical Technology Lecture 3 - Sources
Link Basic Electrical Technology Lecture 4 - Kirchoff's Law
Link Basic Electrical Technology Lecture 5 - Modelling of Circuit - Part 1
Link Basic Electrical Technology Lecture 6 - Modelling of Circuit - Part 2
Link Basic Electrical Technology Lecture 7 - Analysis Using MatLab
Link Basic Electrical Technology Lecture 8 - Sinusoidal steady state
Link Basic Electrical Technology Lecture 9 - Transfer Function and Pole Zero domain
Link Basic Electrical Technology Lecture 10 - Transfer function & pole zero
Link Basic Electrical Technology Lecture 11 - The Sinusoid
Link Basic Electrical Technology Lecture 12 - Phasor Analysis - Part 1
Link Basic Electrical Technology Lecture 13 - Phasor Analysis - Part 2
Link Basic Electrical Technology Lecture 14 - Power Factor
Link Basic Electrical Technology Lecture 15 - Power ports
Link Basic Electrical Technology Lecture 16 - Transformer Basics - Part 1
Link Basic Electrical Technology Lecture 17 - Transformer Basics - Part 2
Link Basic Electrical Technology Lecture 18 - Transformer Basics - Part 3
Link Basic Electrical Technology Lecture 19 - The Practical Transformer - Part 1
Link Basic Electrical Technology Lecture 20 - The Practical Transformer - Part 2
Link Basic Electrical Technology Lecture 21 - The Practical Transformer - Part 3
Link Basic Electrical Technology Lecture 22 - DC Machines - Part 1
Link Basic Electrical Technology Lecture 23 - DC Machines - Part 2
Link Basic Electrical Technology Lecture 24 - DC Generators - Part 1
Link Basic Electrical Technology Lecture 25 - DC Generators - Part 2
Link Basic Electrical Technology Lecture 26 - DC Motors - Part 1
Link Basic Electrical Technology Lecture 27 - DC Motors - Part 2
Link Basic Electrical Technology Lecture 28 - DC Motors - Part 3
Link Basic Electrical Technology Lecture 29 - Three Phase System - Part 1
Link Basic Electrical Technology Lecture 30 - Three Phase System - Part 2
Link Basic Electrical Technology Lecture 31 - Three Phase System - Part 3
Link Basic Electrical Technology Lecture 32 - Three Phase System - Part 4
Link Basic Electrical Technology Lecture 33 - Three Phase Transformer - Part 1
Link Basic Electrical Technology Lecture 34 - Three Phase Transformer - Part 2
Link Basic Electrical Technology Lecture 35 - Induction Motor - Part 1
Link Basic Electrical Technology Lecture 36 - Induction Motor - Part 2
Link Basic Electrical Technology Lecture 37 - Induction Motor - Part 3
Link Basic Electrical Technology Lecture 38 - Induction Motor - Part 4
Link Basic Electrical Technology Lecture 39 - Synchronous Machine
Link Industrial Drives - Power Electronics Lecture 1 - Electric Drive
Link Industrial Drives - Power Electronics Lecture 2 - Controlled Rectifier - Part-1
Link Industrial Drives - Power Electronics Lecture 3 - Controlled Rectifier - Part-2 (Three phase)
Link Industrial Drives - Power Electronics Lecture 4 - Controlled Rectifier - Part-3 (Three phase)
Link Industrial Drives - Power Electronics Lecture 5 - Controlled Rectifier - Part-4 (Three Phase)
Link Industrial Drives - Power Electronics Lecture 6 - Controlled Rectifier - Part-5 (Three Phase)
Link Industrial Drives - Power Electronics Lecture 7 - Power Electronics Improvements
Link Industrial Drives - Power Electronics Lecture 8 - Four Quadrant Dc to Dc Converter
Link Industrial Drives - Power Electronics Lecture 9 - Sine Triangle PWM Control of Converter
Link Industrial Drives - Power Electronics Lecture 10 - Front-end Ac-Dc Converter with harmonic control
Link Industrial Drives - Power Electronics Lecture 11 - Ac to Dc Converter Close Loop Control Schematic
Link Industrial Drives - Power Electronics Lecture 12 - Ac-Dc Converter Close loop Control Block Diagram
Link Industrial Drives - Power Electronics Lecture 13 - Design of the Converter Controller & AC to DC
Link Industrial Drives - Power Electronics Lecture 14 - Front-End Ac to Dc Converter-Design
Link Industrial Drives - Power Electronics Lecture 15 - Front-End Ac to Dc Converter - Simulation study
Link Industrial Drives - Power Electronics Lecture 16 - Dc Motor Speed Control - Introduction
Link Industrial Drives - Power Electronics Lecture 17 - Dc Motor Speed Control - Block Diagram
Link Industrial Drives - Power Electronics Lecture 18 - Dc Motor Speed Control Current Control & S C L
Link Industrial Drives - Power Electronics Lecture 19 - Dc-Motor Speed Control Controller Design - Part-1
Link Industrial Drives - Power Electronics Lecture 20 - Dc Motor Speed Control Controller Design - Part-2
Link Industrial Drives - Power Electronics Lecture 21 - Dc Motor Speed Control Controller Design - Part-3
Link Industrial Drives - Power Electronics Lecture 22 - Basics of DC to AC Converter - Part-1
Link Industrial Drives - Power Electronics Lecture 23 - Basics of DC to AC Converter - Part-2
Link Industrial Drives - Power Electronics Lecture 24 - Inverter Sine Triangle PWM
Link Industrial Drives - Power Electronics Lecture 25 - Inverter - Current Hysteresis Controlled PWM
Link Industrial Drives - Power Electronics Lecture 26 - C H controlled & Basics of space vector PWM
Link Industrial Drives - Power Electronics Lecture 27 - Space Vector PWM - Part-2
Link Industrial Drives - Power Electronics Lecture 28 - Space Vector PWM - Part-3
Link Industrial Drives - Power Electronics Lecture 29 - Space Vector PWM Signal Generation
Link Industrial Drives - Power Electronics Lecture 30 - Speed Control of Induction Motor - Part-1
Link Industrial Drives - Power Electronics Lecture 31 - Speed Control of Induction Motor - Part-2
Link Industrial Drives - Power Electronics Lecture 32 - High dynamic performance of I M Drive
Link Industrial Drives - Power Electronics Lecture 33 - Dynamic Model of Induction Motor - Part-1
Link Industrial Drives - Power Electronics Lecture 34 - Dynamic Model of Induction Motor - Part-2
Link Industrial Drives - Power Electronics Lecture 35 - Vector Control of Induction Motor
Link Industrial Drives - Power Electronics Lecture 36 - Effect of Switching Time lag in Inverter
Link Industrial Drives - Power Electronics Lecture 37 - Power Switch Protection - Snubbers
Link NOC:Design for Internet of Things Lecture 1 - Introduction to IOTs - Part I
Link NOC:Design for Internet of Things Lecture 2 - Introduction to IOTs - Part II
Link NOC:Design for Internet of Things Lecture 3 - Introduction to IOTs - Examples
Link NOC:Design for Internet of Things Lecture 4 - IOT applications - I
Link NOC:Design for Internet of Things Lecture 5 - IOT applications - II
Link NOC:Design for Internet of Things Lecture 6 - Power management in IOT device
Link NOC:Design for Internet of Things Lecture 7 - Introduction to LDO
Link NOC:Design for Internet of Things Lecture 8 - Design with an LDO
Link NOC:Design for Internet of Things Lecture 9 - Introduction to switching regulators
Link NOC:Design for Internet of Things Lecture 10 - Designing with LDO's, switching regulators and case studies - Part I
Link NOC:Design for Internet of Things Lecture 11 - Designing with LDO's, switching regulators and case studies - Part II
Link NOC:Design for Internet of Things Lecture 12 - Designing with LDO's, switching regulators and case studies - Part II
Link NOC:Design for Internet of Things Lecture 13 - Designing with LDO's, switching regulators and case studies - Part IV
Link NOC:Design for Internet of Things Lecture 14 - Power Conditioning with Energy Harvesters - I
Link NOC:Design for Internet of Things Lecture 15 - Power Conditioning with Energy Harvesters - II
Link NOC:Design for Internet of Things Lecture 16 - Power Conditioning with Energy Harvesters - III
Link NOC:Design for Internet of Things Lecture 17 - Battery less power supply and battery life calculation for embedded devices - I
Link NOC:Design for Internet of Things Lecture 18 - Battery less power supply and battery life calculation for embedded devices - II
Link NOC:Design for Internet of Things Lecture 19 - Battery less power supply and battery life calculation for embedded devices - III
Link NOC:Design for Internet of Things Lecture 20 - Introduction to MQTT
Link NOC:Design for Internet of Things Lecture 21 - Quality of Service in MQTT
Link NOC:Design for Internet of Things Lecture 22 - Standards and Security in MQTT
Link NOC:Design for Internet of Things Lecture 23 - Introduction and Implementation of AMQP
Link NOC:Design for Internet of Things Lecture 24 - Implementation of CoAP and MDNS
Link NOC:Design for Internet of Things Lecture 25 - Basics of RFID
Link NOC:Design for Internet of Things Lecture 26 - RFID protocol and applications
Link NOC:Design for Internet of Things Lecture 27 - BLE Security
Link NOC:Design for Internet of Things Lecture 28 - LPWAN technologies
Link NOC:Design for Internet of Things Lecture 29 - Choice of Microcontrollers
Link NOC:Design for Internet of Things Lecture 30 - Case Study 1 - Joule Jotter
Link NOC:Design for Internet of Things Lecture 31 - Case Study 2 - Cloud Based Systems
Link NOC:Advances in UHV Transmission and Distribution Lecture 1 - Advantages of HVAC/DC Transmission, Introduction to Grid Management
Link NOC:Advances in UHV Transmission and Distribution Lecture 2 - Transmission system development, Important components of transmission system
Link NOC:Advances in UHV Transmission and Distribution Lecture 3 - Insulation coordination, over voltage in power systems
Link NOC:Advances in UHV Transmission and Distribution Lecture 4 - Design/selection of insulators, Importance of grading/cc rings
Link NOC:Advances in UHV Transmission and Distribution Lecture 5 - Non ceramic insulators performance-service experience
Link NOC:Advances in UHV Transmission and Distribution Lecture 6 - Failure of apparatus in the field, importance of reliability and testing
Link NOC:Advances in UHV Transmission and Distribution Lecture 7 - Pollution flashover phenomena, modeling etc
Link NOC:Advances in UHV Transmission and Distribution Lecture 8 - Planning of High Voltage laboratories
Link NOC:Advances in UHV Transmission and Distribution Lecture 9 - Importance of High Voltage testing and techniques employed
Link NOC:Advances in UHV Transmission and Distribution Lecture 10 - Basic philosophy of HV testing, tests for various HV apparatus
Link NOC:Advances in UHV Transmission and Distribution Lecture 11 - HV testing techniques for various apparatus
Link NOC:Advances in UHV Transmission and Distribution Lecture 12 - HV testing on Composite Insulators
Link NOC:Advances in UHV Transmission and Distribution Lecture 13 - Surface degradation studies on composite insulators
Link NOC:Advances in UHV Transmission and Distribution Lecture 14 - Surface morphological techniques for composite insulators
Link NOC:Advances in UHV Transmission and Distribution Lecture 15 - Conductors used for EHV/UHV transmission
Link NOC:Advances in UHV Transmission and Distribution Lecture 16 - Corona nad interference on transmission lines
Link NOC:Advances in UHV Transmission and Distribution Lecture 17 - Introduction of HTLS conductors and their advantages
Link NOC:Advances in UHV Transmission and Distribution Lecture 18 - Mechanical considerations for HV conductors
Link NOC:Advances in UHV Transmission and Distribution Lecture 19 - Introduction to Towers and importance of foundations
Link NOC:Advances in UHV Transmission and Distribution Lecture 20 - Selection/Design of clearances for HV towers
Link NOC:Advances in UHV Transmission and Distribution Lecture 21 - Design Optimization for UHV towers
Link NOC:Advances in UHV Transmission and Distribution Lecture 22 - Introduction to 1100kV HVDC
Link NOC:Advances in UHV Transmission and Distribution Lecture 23 - Introduction to HV Substations
Link NOC:Advances in UHV Transmission and Distribution Lecture 24 - Types of Substations, comparison
Link NOC:Advances in UHV Transmission and Distribution Lecture 25 - Insulation coordination, Components in a typical substation
Link NOC:Advances in UHV Transmission and Distribution Lecture 26 - Preventive maintenance of Substation
Link NOC:Advances in UHV Transmission and Distribution Lecture 27 - Electric and magnetic fields, mitigations techniques
Link NOC:Advances in UHV Transmission and Distribution Lecture 28 - Importance of Grounding, reducing Earthing resistance
Link NOC:Advances in UHV Transmission and Distribution Lecture 29 - Introduction to the use of Fiber optic cables, OPGW
Link NOC:Advances in UHV Transmission and Distribution Lecture 30 - Introduction to communication and SCADA
Link NOC:Advances in UHV Transmission and Distribution Lecture 31 - Precautions and safety measures in substation
Link NOC:Advances in UHV Transmission and Distribution Lecture 32 - Electrical hazards, minimum clearances in substation
Link NOC:Advances in UHV Transmission and Distribution Lecture 33 - Importance of Generation of HVDC in the laboratory
Link NOC:Advances in UHV Transmission and Distribution Lecture 34 - Importance of Generation of HVAC, Impulse Voltage and Currents in the laboratory
Link NOC:Advances in UHV Transmission and Distribution Lecture 35 - Measurements of High Voltages
Link NOC:Advances in UHV Transmission and Distribution Lecture 36 - Measurements of High Voltages (Continued...)
Link NOC:Advances in UHV Transmission and Distribution Lecture 37 - Introduction to digital recorders, measurement
Link NOC:Advances in UHV Transmission and Distribution Lecture 38 - Upgradation/uprating of transmission lines- advantages
Link NOC:Advances in UHV Transmission and Distribution Lecture 39 - Upgradation/uprating of transmission lines- advantages (Continued...)
Link NOC:Advances in UHV Transmission and Distribution Lecture 40 - Summary of the course
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 1 - Introduction to signal processing
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 2 - Basics of signals and systems
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 3 - Linear time-invariant systems
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 4 - Modes in a linear system
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 5 - Introduction to state space representation
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 6 - State space representation
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 7 - Non-uniqueness of state space representation
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 8 - Introduction to vector space
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 9 - Linear independence and spanning set
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 10 - Unique representation theorem
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 11 - Basis and cardinality of basis
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 12 - Norms and inner product spaces
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 13 - Inner products and induced norm
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 14 - Cauchy Schwartz inequality
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 15 - Orthonormality
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 16 - Problem on sum of subspaces
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 17 - Linear independence of orthogonal vectors
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 18 - Hilbert space and linear transformation
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 19 - Gram Schmidt orthonormalization
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 20 - Linear approximation of signal space
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 21 - Gram Schmidt orthogonalization of signals
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 22 - Problem on orthogonal complement
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 23 - Problem on signal geometry (4-QAM)
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 24 - Basics of probability and random variables
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 25 - Mean and variance of a random variable
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 26 - Introduction to random process
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 27 - Statistical specification of random processes
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 28 - Stationarity of random processes
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 29 - Problem on mean and variance
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 30 - Problem on MAP Detection
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 31 - Fourier transform of dirac comb sequence
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 32 - Sampling theorem
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 33 - Basics of multirate systems
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 34 - Frequency representation of expanders and decimators
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 35 - Decimation and interpolation filters
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 36 - Fractional sampling rate alterations
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 37 - Digital filter banks
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 38 - DFT as filter bank
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 39 - Noble Identities
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 40 - Polyphase representation
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 41 - Efficient architectures for interpolation and decimation filters
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 42 - Problems on simplifying multirate systems using noble identities
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 43 - Problem on designing synthesis bank filters
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 44 - Efficient architecture for fractional decimator
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 45 - Multistage filter design
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 46 - Two-channel filter banks
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 47 - Amplitude and phase distortion in signals
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 48 - Polyphase representation of 2-channel filter banks, signal flow graphs and perfect reconstruction
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 49 - M-channel filter banks
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 50 - Polyphase representation of M-channel filter bank
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 51 - Perfect reconstruction of signals
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 52 - Nyquist and half band filters
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 53 - Special filter banks for perfect reconstruction
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 54 - Introduction to wavelets
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 55 - Multiresolution analysis and properties
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 56 - The Haar wavelet
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 57 - Structure of subspaces in MRA
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 58 - Haar decomposition - 1
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 59 - Haar decomposition - 2
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 60 - Wavelet Reconstruction
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 61 - Haar wavelet and link to filter banks
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 62 - Demo on wavelet decomposition
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 63 - Problem on circular convolution
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 64 - Time frequency localization
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 65 - Basic analysis: Pointwise and uniform continuity of functions
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 66 - Basic Analysis : Convergence of sequence of functions
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 67 - Fourier series and notions of convergence
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 68 - Convergence of Fourier series at a point of continuity
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 69 - Convergence of Fourier series for piecewise differentiable periodic functions
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 70 - Uniform convergence of Fourier series of piecewise smooth periodic function
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 71 - Convergence in norm of Fourier series
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 72 - Convergence of Fourier series for all square integrable periodic functions
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 73 - Problem on limits of integration of periodic functions
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 74 - Matrix Calculus
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 75 - KL transform
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 76 - Applications of KL transform
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 77 - Demo on KL Transform
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 78 - Live Session
Link NOC:Mathematical Methods and Techniques in Signal Processing Lecture 79 - Live Session 2
Link NOC:Electronics Enclosures Thermal Issues Lecture 1 - Electronic Equipment Thermal issues
Link NOC:Electronics Enclosures Thermal Issues Lecture 2 - Practical Examples - 1
Link NOC:Electronics Enclosures Thermal Issues Lecture 3 - Practical Examples - 2
Link NOC:Electronics Enclosures Thermal Issues Lecture 4 - CEDT worked examples - 1
Link NOC:Electronics Enclosures Thermal Issues Lecture 5 - CEDT worked examples - 2
Link NOC:Electronics Enclosures Thermal Issues Lecture 6 - Text book theory
Link NOC:Electronics Enclosures Thermal Issues Lecture 7 - Sample heat sinks
Link NOC:Electronics Enclosures Thermal Issues Lecture 8 - Published correlations - 1
Link NOC:Electronics Enclosures Thermal Issues Lecture 9 - Published correlations - 2
Link NOC:Electronics Enclosures Thermal Issues Lecture 10 - Parallel combined effects
Link NOC:Electronics Enclosures Thermal Issues Lecture 11 - Mounting of packages
Link NOC:Electronics Enclosures Thermal Issues Lecture 12 - Combined Rth of devices
Link NOC:Electronics Enclosures Thermal Issues Lecture 13 - Schonholzer moduls
Link NOC:Electronics Enclosures Thermal Issues Lecture 14 - 1972 model paper
Link NOC:Electronics Enclosures Thermal Issues Lecture 15 - Jensen model
Link NOC:Electronics Enclosures Thermal Issues Lecture 16 - Thermal management - 1
Link NOC:Electronics Enclosures Thermal Issues Lecture 17 - Thermal management - 2
Link NOC:Electronics Enclosures Thermal Issues Lecture 18 - Round up of full model
Link NOC:Electronics Enclosures Thermal Issues Lecture 19 - Fan cooling
Link NOC:Electronics Enclosures Thermal Issues Lecture 20 - Thermo-electric cooling
Link NOC:Electronics Enclosures Thermal Issues Lecture 21 - On-the-net DIY work
Link NOC:Electronics Enclosures Thermal Issues Lecture 22 - Practical video
Link NOC:Electronics Enclosures Thermal Issues Lecture 23
Link NOC:Electronics Enclosures Thermal Issues Lecture 24
Link NOC:Electronics Enclosures Thermal Issues Lecture 25
Link NOC:Electronics Enclosures Thermal Issues Lecture 26
Link NOC:Electronics Enclosures Thermal Issues Lecture 27 - Real packages
Link NOC:Electronics Enclosures Thermal Issues Lecture 28 - Prior art
Link NOC:Electronics Enclosures Thermal Issues Lecture 29 - OTS standard profiles
Link NOC:Electronics Enclosures Thermal Issues Lecture 30 - CAD detailed design of profiles
Link NOC:Electronics Enclosures Thermal Issues Lecture 31 - Round up
Link NOC:Electronics Enclosures Thermal Issues Lecture 32 - 4X Peltier Cooler
Link NOC:Electronics Enclosures Thermal Issues Lecture 33 - Manufacturing Video
Link NOC:Electronics Enclosures Thermal Issues Lecture 34 - Peltier heat sink
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 1 - Introduction to Integrated Circuits (IC) Technology
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 2 - Introduction to fabrication of IC: Substrates
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 3 - Introduction to IC fabrication
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 4 - Introduction to IC fabrication (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 5 - Introduction to the fabrication of sensors
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 6 - Introduction to fabrication technology
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 7 - Introduction to fabrication technology (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 8 - Introduction to fabrication technology (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 9 - Introduction to fabrication technology (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 10 - Introduction to fabrication technology (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 11 - Process flow for Fabrication of MOSFETs
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 12 - Operation of Enhancement type MOSFET
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 13 - Operation of Depletion type MOSFET
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 14 - MOSFETs Characteristics and Applications (Current Mirrors)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 15 - Introduction to Operational Amplifiers
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 16 - Operational Amplifier Characteristics
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 17 - Operational Amplifier Characteristics (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 18 - Characteristics of an op-amp (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 19 - Operational Amplifier Configarations
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 20 - Operational Amplifier Configarations (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 21 - Applications of Operational Amplifier: Differential Amplifier
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 22 - Applications of Operational Amplifier: Integerator
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 23 - Applications of Operational Amplifier: Differentiator
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 24 - Introduction to Passive and Active Filters and op-amp as Low Pass Filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 25 - Operational Amplifier as a High Pass Filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 26 - Operational Amplifier as a Band Pass and Band Reject Filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 27 - Introduction to Oscillator
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 28 - RC Phase Shift Oscillator using Op-amp
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 29 - Wein Bridge Oscillator using Op-amp
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 30 - Hartley and Colpitts Oscillator using Op-amp
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 31 - Working of Crystal Oscillators
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 32 - Construction and Operation of UJT Relaxation Oscillators
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 33 - Introduction to Noise and its Types
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 34 - Analysis of Data Sheets of an Op-Amp
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 35 - Analysis of Data Sheets of an Op-Amp (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 36 - Analysis of Data Sheets of an Op-Amp (Continued...)
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 37 - Experiment - Introduction to Laboratory Equipment
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 38 - Experiment - Measurement of Active and Passive elements using Multimeter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 39 - Experiment - Working with Laboratory Equipment: Power Supply
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 40 - Experiment - Working with Laboratory Equipment: Function Generator, Oscilloscope
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 41 - Experiment - Op-Amp Characteristics: Input Bias Current
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 42 - Experiment - Op-Amp Characteristics: Input Offset Current
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 43 - Experiment - Op-Amp Characteristics: Input Offset Voltage
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 44 - Experiment - Op-Amp as Inverting Amplifier
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 45 - Experiment - Op-Amp as Non-Inverting Amplifier
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 46 - Experiment - To study input and output voltage range of an Op-Amp
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 47 - Experiment - Differential amplifier using op-amp
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 48 - Experiment - To study the gain of instrumentation amplifier
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 49 - Experiment - Summing amplifier using op-amp
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 50 - Experiment - To study op-amp based comparator
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 51 - Experiment - To study op-amp based integrator and differentiator
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 52 - Experiment - Study of passive low pass filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 53 - Experiment - Op-amp based active low pass filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 54 - Experiment - Passive and active high pass filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 55 - Experiment - Introduction to experimental set-up of band pass filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 56 - Experiment - Passive and active band pass filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 57 - Experiment - Introduction to experimental set-up for band reject filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 58 - Experiment - Active band reject filter
Link NOC:Integrated Circuits, MOSFETs, Op-Amps and their Applications Lecture 59 - Experiment - Peak detector circuit using Op-Amp
Link NOC:Semiconductor Devices and Circuits Lecture 1 - Quantum Mechanics: Concept of Wave Particle, Schrodinders Equation
Link NOC:Semiconductor Devices and Circuits Lecture 2 - Quantum Mechanics: Particle in a Box
Link NOC:Semiconductor Devices and Circuits Lecture 3 - Quantum Mechanics: Particle in a Box (Continued...), Harmonic Oscillator
Link NOC:Semiconductor Devices and Circuits Lecture 4 - Solids: Formation of Bands, Kronig-Penny Model
Link NOC:Semiconductor Devices and Circuits Lecture 5 - Solids: Kronig-Penny Model (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 6 - Solids: Electrons and Holes
Link NOC:Semiconductor Devices and Circuits Lecture 7 - Solids: Electrons and Holes (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 8 - Solids: Crystals
Link NOC:Semiconductor Devices and Circuits Lecture 9 - Density of States
Link NOC:Semiconductor Devices and Circuits Lecture 10 - Density of States (Continued...), Fermi Function
Link NOC:Semiconductor Devices and Circuits Lecture 11 - Fermi Function - Carrier Concentration
Link NOC:Semiconductor Devices and Circuits Lecture 12 - Doping
Link NOC:Semiconductor Devices and Circuits Lecture 13 - Doping (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 14 - Recombination and Generation
Link NOC:Semiconductor Devices and Circuits Lecture 15 - Recombination and Generation (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 16 - Recombination and Generation (Continued...), Charge Transport
Link NOC:Semiconductor Devices and Circuits Lecture 17 - Charge Transport (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 18 - Continuity Equation
Link NOC:Semiconductor Devices and Circuits Lecture 19 - Junctions
Link NOC:Semiconductor Devices and Circuits Lecture 20 - Metal Semiconductor Junctions
Link NOC:Semiconductor Devices and Circuits Lecture 21 - Schottky Contact: Electrostatics
Link NOC:Semiconductor Devices and Circuits Lecture 22 - Schottky Contact: Current-Voltage (IV) Characteristics
Link NOC:Semiconductor Devices and Circuits Lecture 23 - Schottky Contact: IV Characteristics (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 24 - Schottky Contact: Small Signal Impedance
Link NOC:Semiconductor Devices and Circuits Lecture 25 - PN Junctions: Electrostatics
Link NOC:Semiconductor Devices and Circuits Lecture 26 - PN Junctions: IV Characteristics
Link NOC:Semiconductor Devices and Circuits Lecture 27 - PN Junctions: Small Signal Impedance
Link NOC:Semiconductor Devices and Circuits Lecture 28 - PN Junctions: Non-Idealities
Link NOC:Semiconductor Devices and Circuits Lecture 29 - Bipolar Junction Transistors (BJT)
Link NOC:Semiconductor Devices and Circuits Lecture 30 - BJT: IV Characteristics
Link NOC:Semiconductor Devices and Circuits Lecture 31 - BJT: Non-Idealities and Equivalent Circuit Modeling
Link NOC:Semiconductor Devices and Circuits Lecture 32 - Metal Oxide Semiconductor Capacitor (MOSCAP)
Link NOC:Semiconductor Devices and Circuits Lecture 33 - MOSCAP (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 34 - MOSCAP: CV Characteristics
Link NOC:Semiconductor Devices and Circuits Lecture 35 - MOSCAP: CV Characteristics (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 36 - MOSFET: Introduction
Link NOC:Semiconductor Devices and Circuits Lecture 37 - MOSFET: I-V characteristics
Link NOC:Semiconductor Devices and Circuits Lecture 38 - MOSFET: I-V characteristics (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 39 - MOSFET: I-V characteristics (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 40 - Subthreshold swing, Additional concepts
Link NOC:Semiconductor Devices and Circuits Lecture 41 - Trapped charge, Body-bias
Link NOC:Semiconductor Devices and Circuits Lecture 42 - Scaling of MOSFETs
Link NOC:Semiconductor Devices and Circuits Lecture 43 - Scaling of MOSFETs (Continued...), Leakage currents in MOSFETs
Link NOC:Semiconductor Devices and Circuits Lecture 44 - MOSFET characterization: Parameter extraction
Link NOC:Semiconductor Devices and Circuits Lecture 45 - MOSFET characterization: Trapped charges, contact resistance
Link NOC:Semiconductor Devices and Circuits Lecture 46 - MOSFET as a switch
Link NOC:Semiconductor Devices and Circuits Lecture 47 - MOSFET as a switch (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 48 - Amplifiers using MOSFET
Link NOC:Semiconductor Devices and Circuits Lecture 49 - Amplifiers using MOSFET (Continued...)
Link NOC:Semiconductor Devices and Circuits Lecture 50 - Circuits: Frequency Response, Noise
Link NOC:Semiconductor Devices and Circuits Lecture 51 - Introduction: Amorphous Semiconductors
Link NOC:Semiconductor Devices and Circuits Lecture 52 - Thin Film Transistors
Link NOC:Semiconductor Devices and Circuits Lecture 53 - Tutorials Session - 1
Link NOC:Semiconductor Devices and Circuits Lecture 54 - Tutorials Session - 2
Link NOC:Semiconductor Devices and Circuits Lecture 55 - Tutorials Session - 3
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 1 - Introduction to Microengineering Devices
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 2 - Introduction to Microengineering Devices (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 3 - Introduction to Microengineering Devices (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 4 - Silicon, silicon di-oxide and photolithography
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 5 - Silicon, silicon di-oxide and photolithography (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 6 - Physical Vapour Deposition
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 7 - Physical Vapour Deposition (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 8 - Photolithography
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 9 - Mask Aligner
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 10 - Mask Aligner (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 11 - Micromachining
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 12 - Micromachining: Fabrication of VOC Sensor
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 13 - Micromachining: Fabrication of VOC Sensor (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 14 - Micromachining: Fabrication of VOC Sensor and Cantilever
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 15 - Chemical Vapour Deposition
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 16 - Typical Microfabricated Devices for Biomedical Applications
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 17 - Cancer Diagnostic Tool
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 18 - Process flow for Fabrication of Micro Heater
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 19 - Process flow for Fabrication of Interdigited Electrodes
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 20 - Process flow for Fabrication of Interdigited Electrodes (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 21 - Process flow for Fabrication of ETM phenotyping
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 22 - Process flow for Fabrication of Piezo canteliver
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 23
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 24
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 25
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 26
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 27 - Microchip for Rapid Drug Screening
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 28 - Microchip for Rapid Drug Screening (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 29 - A Microfluidic chip for rapid bacterial antibiotic Susceptibility testing
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 30 - Smart Catheter
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 31 - Smart Catheter: Flexible Force Sensor
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 32 - Smart Catheter: Flexible Force Sensor (Continued...)
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 33 - Tissue and Cell Culture Techniques
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 34 - Clean Room: Equipments Required
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 35 - GLP: Gowning Procedure for using Lab
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 36 - Introduction to Equipments: Refridgerator
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 37 - Gowning Procedure for using Biological Lab Setup
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 38 - Introduction to Equipments: Desiccator
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 39 - Introduction to Equipments: Impedance Analyzer
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 40 - Introduction to Equipments: DAQ
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 41 - Function generator, Multimeter, Sampling, LabVIEW, NI-CDAQ
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 42 - Introduction to Equipments: Stereo Microscope
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 43 - Introduction to Equipments: Metallurgical Microscope
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 44 - Introduction to Equipments: Inverted Microscope
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 45 - Introduction to Equipments: Fire Alarm
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 46 - Introduction to Equipments: Bio-safety Hood
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 47 - Introduction to Equipments: Peristaltic Pump
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 48 - Introduction to Equipments: Incubator
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 49 - Introduction to Equipments: Oven
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 50 - Introduction to Equipments: Micromanipulator
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 51 - PDMS Moulding
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 52 - 3D Printing
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 53 - Introduction to Fabricated Sensors
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 54 - Simulation: Electro- Thermo- Mechanical Properties of Micro-heater using COMSOL Multiphysics
Link NOC:Fabrication Techniques for MEMs-based Sensors: Clinical Perspective Lecture 55 - Simulation: Electro- Thermo- Mechanical Properties of Micro-heater using COMSOL Multiphysics (Continued...)
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 1 - Introduction/Summary on Op-amps
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 2 - Introduction/Summary on Op-amps (Continued...)
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 3 - Introduction/Summary on Op-amps (Continued...)
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 4 - Effect of Loading and Input Impedance - Part 1
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 5 - Effect of Loading and Input Impedance - Part 2
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 6 - Effect of Loading and Input Impedance - Part 3
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 7 - Effect of Loading and Input Impedance - Part 4
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 8 - Introduction to an Analog Circuit Development Board (TI ASLK Pro)
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 9 - Op-amp Applications: Half Wave Rectifier
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 10 - Op-amp Applications: Full Wave Rectifier
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 11 - Op-amp Applications: Clipper
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 12 - Op-amp Circuits using Diodes: Clamper
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 13 - Understanding the Range of Feedback Amplifiers
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 14 - Op-amps as Phase Shift Oscillator
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 15 - Op-amp as Wein Bridge Oscillator
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 16 - Op-amp as Hartley Oscillator
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 17 - Op-amp as Colpitts Oscillator
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 18 - Op-amps as Comparator: Window Comparator
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 19 - Op-amp with Positive Feedback: Inverting Schmitt Trigger
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 20 - Op-amp with Positive Feedback: Non-Inverting Schmitt Trigger
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 21 - Op-amp with Positive Feedback: Astable Multivibrator
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 22 - Op-amp with Positive Feedback: Monostable Multivibrator
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 23 - Op-amp based Voltage Controlled Current Source
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 24 - Measure of Unknown Resistance by Constant Current Drive Circuit Implemented using Op-amp
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 25 - Design and Development of Temperature Controlled Circuit using Op-amp as ON-OFF, Proportional and Proportional Integral Controllers: Introduction
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 26 - Implemetation of Error Detector Cirucit and Signal Conditioning Circuit for Temperature Control
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 27 - Implementation of Plant/Heating Circuit and ON-OFF Controller
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 28 - Implementation of P and PI Controllers
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 29 - Experiment on Controlling the Temperature on the Plant using different Controllers
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 30 - Experiment: Design and Implementation of Signal Conditioning unit for Thermocouple Cold Junction Compensation
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 31 - Introduction to ECG Experiment
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 32 - Desing and Implementation of ECG Preprocessing Stage - Part 1
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 33 - Desing and Implementation of ECG Preprocessing Stage - Part 2
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 34 - Desing and Implementation of ECG Preprocessing Stage - Part 3
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 35 - Desing and Implementation of ECG Preprocessing Stage - Part 4
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 36 - Desing and Implementation of Peak Detetor and Thresholding Circuit for ECG Signal Conditioning
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 37 - Live Demonstration on ECG Signal Acquistion, Conditioning and Measurement of BPM
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 38 - Understanding Analog Multipliers using Development Board
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 39 - Application: Automatic Gain Controller using Development Board
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 40 - Introdution to Data-Acquisition
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 41 - Analog to Digital Conversion Circuits and Experiment on 2-bit Flash Type ADC
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 42 - Digital to Analog Conversion Circuits and Experiment on 4-bit R-2R DAC
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 43 - DAC Basics using Development Board - Introduction
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 44 - Understanding DAC 7821 Datasheet
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 45 - Basic DAC Experiment on Variable Gain Amplifier
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 46 - Understanding DAC: Experiment on Variable Square and Triangular Wave Generator
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 47 - Introduction to CDAQ (Compact DAQ)
Link NOC:Op-Amp Practical Applications: Design, Simulation and Implementation Lecture 48 - Software-in-Loop based Temperature Controller using CDAQ and LabVIEW
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 1 - Products prototyping
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 2 - Prototype concepts
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 3 - Physical simulation
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 4 - Rapid Prototyping
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 5 - Products detailing
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 6 - Advantages of Design Modelling
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 7 - Sample product concept
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 8 - Product sample exercise 1
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 9 - Exercise in product sample 2
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 10 - Integration of components 1
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 11 - Components integration in models
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 12 - 3D printing detail 1
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 13 - 3D printing detail 2
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 14 - 3D print assembly design
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 15 - Heat spreader to 3D print
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 16 - Metallic, 3D, build up 1
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 17 - 3D build up 2
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 18 - 3D design 1 from Photo snap
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 19 - 3D design 2 from Photo snap
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 20 - 3D Laser cuts 1, prints
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 21 - 3D Laser cuts 2, open source public prints
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 22 - Demo of 3D Part print
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 23 - Building a model 1
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 24 - Building a model 2
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 25 - Common place objects
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 26 - Materials
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 27 - Future 3D In biology
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 28 - Product clamp variants
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 29 - Product clamp build up
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 30 - Multi direction features
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 31 - Multi direction features (Continued...)
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 32 - Fastening detail
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 33 - Flat objects
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 34 - Modularity
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 35 - Creative design work
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 36 - Creative designs
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 37 - Using flat features
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 38 - Organic shapes
Link NOC:Physical Modelling for Electronics Enclosures using Rapid prototyping Lecture 39 - Simulation for alternate use
Link NOC:Recent Advances in Transmission Insulators Lecture 1 - Introduction to Transmission and distribution Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 2 - Manufacturing process for Ceramic/glass Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 3 - Manufacturing process for Polymeric Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 4 - Design Considerations of Transmission Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 5 - Field experience of Ceramic/Glass and Polymeric Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 6 - Comparison of Transmission Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 7 - Environmental issues with transmission Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 8 - Reliability and Philosophy of Testing
Link NOC:Recent Advances in Transmission Insulators Lecture 9 - Testing of Ceramic, Glass and Composite Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 10 - Cleaning methods adopted for Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 11 - Cleaning methods adopted for Insulators (Continued...)
Link NOC:Recent Advances in Transmission Insulators Lecture 12 - Coating techniques for Insulators
Link NOC:Recent Advances in Transmission Insulators Lecture 13 - Introduction to Hybrid Insulators
Link NOC:Fundamentals of Semiconductor Devices Lecture 1 - Introduction to semiconductors
Link NOC:Fundamentals of Semiconductor Devices Lecture 2 - Introduction to energy bands
Link NOC:Fundamentals of Semiconductor Devices Lecture 3 - Fundamentals of band structure
Link NOC:Fundamentals of Semiconductor Devices Lecture 4 - Band structure (Continued...) and Fermi-Dirac distribution
Link NOC:Fundamentals of Semiconductor Devices Lecture 5 - Density of states
Link NOC:Fundamentals of Semiconductor Devices Lecture 6 - Doping and intrinsic carrier concentration
Link NOC:Fundamentals of Semiconductor Devices Lecture 7 - Equilibrium carrier concentration
Link NOC:Fundamentals of Semiconductor Devices Lecture 8 - Temperature-dependence of carrier concentration
Link NOC:Fundamentals of Semiconductor Devices Lecture 9 - High doping effects and incomplete ionization
Link NOC:Fundamentals of Semiconductor Devices Lecture 10 - Carrier scattering and mobility
Link NOC:Fundamentals of Semiconductor Devices Lecture 11 - Low-field and high-field transport, introduction to diffusion
Link NOC:Fundamentals of Semiconductor Devices Lecture 12 - Drift-diffusion and trap statistics
Link NOC:Fundamentals of Semiconductor Devices Lecture 13 - Current continuity equation
Link NOC:Fundamentals of Semiconductor Devices Lecture 14 - Continuity equation (Continued...) and introduction to p-n junction
Link NOC:Fundamentals of Semiconductor Devices Lecture 15 - p-n junction under equilibrium
Link NOC:Fundamentals of Semiconductor Devices Lecture 16 - p-n junction under equilibrium (Continued...)
Link NOC:Fundamentals of Semiconductor Devices Lecture 17 - p-n junction under bias
Link NOC:Fundamentals of Semiconductor Devices Lecture 18 - p-n junction under bias (Continued...)
Link NOC:Fundamentals of Semiconductor Devices Lecture 19 - p-n junction: generation-recombination currents
Link NOC:Fundamentals of Semiconductor Devices Lecture 20 - Application of p-n junctions
Link NOC:Fundamentals of Semiconductor Devices Lecture 21 - Breakdown of junction and C-V profiling
Link NOC:Fundamentals of Semiconductor Devices Lecture 22 - Introduction to Schottky junction
Link NOC:Fundamentals of Semiconductor Devices Lecture 23 - Schottky junction under equilibrium
Link NOC:Fundamentals of Semiconductor Devices Lecture 24 - Schottky junction under bias
Link NOC:Fundamentals of Semiconductor Devices Lecture 25 - Introduction to transistors: BJT
Link NOC:Fundamentals of Semiconductor Devices Lecture 26 - Basics of BJT
Link NOC:Fundamentals of Semiconductor Devices Lecture 27 - Working of BJT
Link NOC:Fundamentals of Semiconductor Devices Lecture 28 - Working of BJT (Continued...)
Link NOC:Fundamentals of Semiconductor Devices Lecture 29 - Delays in BJT
Link NOC:Fundamentals of Semiconductor Devices Lecture 30 - MOS: Introduction
Link NOC:Fundamentals of Semiconductor Devices Lecture 31 - MOS: Capacitance-voltage
Link NOC:Fundamentals of Semiconductor Devices Lecture 32 - Ideal MOS system: derivation of threshold voltage
Link NOC:Fundamentals of Semiconductor Devices Lecture 33 - MOS C-V in more details
Link NOC:Fundamentals of Semiconductor Devices Lecture 34 - MOSFET - An introduction
Link NOC:Fundamentals of Semiconductor Devices Lecture 35 - Gradual Channel Approximation: Derivation of I-V characteristics
Link NOC:Fundamentals of Semiconductor Devices Lecture 36 - Substrate bias effect and subthreshold conduction in MOSFET
Link NOC:Fundamentals of Semiconductor Devices Lecture 37 - Short Channel Effects in MOSFET
Link NOC:Fundamentals of Semiconductor Devices Lecture 38 - Introduction to compound semiconductors
Link NOC:Fundamentals of Semiconductor Devices Lecture 39 - Basics of heterojunctions
Link NOC:Fundamentals of Semiconductor Devices Lecture 40 - Band diagram of heterojunctions
Link NOC:Fundamentals of Semiconductor Devices Lecture 41 - Heterojunctions (Continued....)
Link NOC:Fundamentals of Semiconductor Devices Lecture 42 - Heterojunction transistors
Link NOC:Fundamentals of Semiconductor Devices Lecture 43 - III-nitrides
Link NOC:Fundamentals of Semiconductor Devices Lecture 44 - Solar cell basics
Link NOC:Fundamentals of Semiconductor Devices Lecture 45 - Solar cell (Continued...)
Link NOC:Fundamentals of Semiconductor Devices Lecture 46 - Solar cell: Shockley Quiesser Limit
Link NOC:Fundamentals of Semiconductor Devices Lecture 47 - Basics of photodetectors
Link NOC:Fundamentals of Semiconductor Devices Lecture 48 - Photodetectors: figures of merit and types of devices
Link NOC:Fundamentals of Semiconductor Devices Lecture 49 - Junction photodetectors
Link NOC:Fundamentals of Semiconductor Devices Lecture 50 - Basics of recombination
Link NOC:Fundamentals of Semiconductor Devices Lecture 51 - Basics of LED
Link NOC:Fundamentals of Semiconductor Devices Lecture 52 - LED: light extraction and design issues
Link NOC:Fundamentals of Semiconductor Devices Lecture 53 - Visible LED: photometry and colorimetry
Link NOC:Fundamentals of Semiconductor Devices Lecture 54 - Transistors for power electronics
Link NOC:Fundamentals of Semiconductor Devices Lecture 55 - Transistors for power electronics (Continued...) and for RF electronics
Link NOC:Fundamentals of Semiconductor Devices Lecture 56 - Transistors for RF (Continued...) and transistors for Memory
Link NOC:Fundamentals of Semiconductor Devices Lecture 57 - Basics of microelectronic fabrication
Link NOC:Fundamentals of Semiconductor Devices Lecture 58 - Microelectronic fabrication (Continued...)
Link NOC:Fundamentals of Semiconductor Devices Lecture 59 - Summary
Link NOC:Advanced IOT Applications Lecture 1 - Overview of localization using IoT sensors
Link NOC:Advanced IOT Applications Lecture 2 - Outdoor localization without GPS - I
Link NOC:Advanced IOT Applications Lecture 3 - Outdoor localization without GPS - II
Link NOC:Advanced IOT Applications Lecture 4 - Outdoor localization using elevation - pressure mapping
Link NOC:Advanced IOT Applications Lecture 5 - Localization using IMU sensors - I
Link NOC:Advanced IOT Applications Lecture 6 - Localization using IMU sensors - II
Link NOC:Advanced IOT Applications Lecture 7 - Localization using IMU sensors - III
Link NOC:Advanced IOT Applications Lecture 8 - RFID based localization - I
Link NOC:Advanced IOT Applications Lecture 9 - RFID based localization - II
Link NOC:Advanced IOT Applications Lecture 10 - Simulation of simple algorithms for object detection
Link NOC:Advanced IOT Applications Lecture 11 - Building smart vehicle for collision avoidance
Link NOC:Advanced IOT Applications Lecture 12 - Basic computer vision algorithms - Part 1
Link NOC:Advanced IOT Applications Lecture 13 - Basic computer vision algorithms - Part 2
Link NOC:Advanced IOT Applications Lecture 14 - Code walkthrough of computer vision algorithm
Link NOC:Advanced IOT Applications Lecture 15 - Introduction to LiDAR
Link NOC:Advanced IOT Applications Lecture 16 - Range estimation and Obstacle avoidance
Link NOC:Advanced IOT Applications Lecture 17 - Introduction to vehicle platooning
Link NOC:Advanced IOT Applications Lecture 18 - Building blocks for autonomous vehicles - 1
Link NOC:Advanced IOT Applications Lecture 19 - Building blocks for autonomous vehicles - 2
Link NOC:Advanced IOT Applications Lecture 20 - On Board Diagnostics and protocols
Link NOC:Advanced IOT Applications Lecture 21 - Diagnostic services and fuel-injection ratio control unit
Link NOC:Advanced IOT Applications Lecture 22 - Real time event processing and Anomaly detection
Link NOC:Advanced IOT Applications Lecture 23 - OBD-II and stream processing demonstration
Link NOC:Advanced IOT Applications Lecture 24 - Speech recognition - Part 1
Link NOC:Advanced IOT Applications Lecture 25 - Speech recognition - Part 2
Link NOC:Advanced IOT Applications Lecture 26 - Speech recognition - Part 3
Link NOC:Advanced IOT Applications Lecture 27 - Speech recognition - Part 4
Link NOC:Advanced IOT Applications Lecture 28 - Device Security - Part 1
Link NOC:Advanced IOT Applications Lecture 29 - Device Security - Part 2
Link NOC:Advanced IOT Applications Lecture 30 - Device Security - Part 3
Link NOC:Advanced IOT Applications Lecture 31 - Need for air quality monitoring
Link NOC:Advanced IOT Applications Lecture 32 - Air quality : pollutants and standards
Link NOC:Advanced IOT Applications Lecture 33 - Introduction to air quality sensors
Link NOC:Advanced IOT Applications Lecture 34 - Calibration techniques for IoT air quality sensors
Link NOC:Advanced IOT Applications Lecture 35 - Sensor types : semiconductor and electrochemical
Link NOC:Advanced IOT Applications Lecture 36 - Air quality : Overview of system design
Link NOC:Advanced IOT Applications Lecture 37 - Air quality : System design - Part 1
Link NOC:Advanced IOT Applications Lecture 38 - Air quality : System design - Part 2
Link NOC:Advanced IOT Applications Lecture 39 - Air quality : Real time measurement for a drive cycle
Link NOC:Advanced IOT Applications Lecture 40 - Introduction to First Responder networks
Link NOC:Advanced IOT Applications Lecture 41 - First Responders - Applications - Part 1
Link NOC:Advanced IOT Applications Lecture 42 - First Responders - Applications - Part 2
Link NOC:Advanced IOT Applications Lecture 43 - Cargo monitoring for tamper detection - Part 1
Link NOC:Advanced IOT Applications Lecture 44 - Cargo monitoring for tamper detection - Part 2
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 1 - Tissue and Cell Culture Techniques: Introduction
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 2 - Tissue and Cell Culture Techniques: Methods
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 3 - Tissue and Cell Culture Techniques: Devices
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 4 - Cleanroom Equipments
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 5 - Cleanroom Equipments (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 6 - Introduction to photolithography
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 7 - Photolithography: Mask Aligner
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 8 - Photolithography: Designing Mask Aligner
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 9 - Micromachining Techniques
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 10 - Breast Cancer and Oral Cancer Statistics
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 11 - Fabrication of MEMs-based Biochip for cancer diagnosis
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 12 - Fabrication of MEMs-based Biochip for cancer diagnosis (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 13 - Fabrication of Piezoresistive Sensor
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 14 - Fabrication of Piezoresistive Sensor (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 15 - Fabrication of SU-8 pillar on piezoresistive Sensor
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 16 - Portable Cancer Diagnostic Tool Using a Disposable MEMS-Based Biochip
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 17 - Mechanical Phenotyping of Breast Cancer using MEMS
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 18 - Electrical characterization of Breast Tissue Cores
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 19 - Fabrication of MEMS-based sensor for electro-mechanical phenotyping of breast cancer
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 20 - Fabrication of electro-mechanical sensor (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 21 - Assemby of the electro-mechanical sensor
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 22 - Silicon substrate devices for breast cancer diagnosis
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 23 - Understanding the methods and mechanism to study cell morphology
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 24 - Cytology - A detail study on Spin Coater and Cytospin
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 25 - Techniques in oral cytology studies
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 26 - Techniques in cell morphology analysis
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 27 - Comparitive study on diagnostic tools for oral cancer screening
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 28 - Basic building blocks of Electronics System: Amplifiers
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 29 - Basic building blocks of Electronics System: Amplifiers (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 30 - Basic building blocks of Electronics System: Amplifiers (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 31 - Basic building blocks of Electronics System: Filters
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 32 - Basic building blocks of Electronics System: Filters (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 33 - Basic building blocks of Electronics System: Filters (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 34 - Basic building blocks of Electronics System: Data Converteres
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 35 - Basic building blocks of Electronics System: Data Converteres (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 36 - Basic building blocks of Electronics System: Signal Conditioning Circuits
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 37 - Etching Process and Figure of Merits
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 38 - ECG Signal Processing to calculate BPM
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 39 - ECG Signal Processing to calculate BPM (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 40 - ECG Signal Processing to calculate BPM (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 41 - ECG Signal Processing to calculate BPM (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 42 - ECG Signal Processing to calculate BPM (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 43 - ECG Signal Processing to calculate BPM [Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 44 - MEMS based Force Sensor for Catheter Contact Force Measurement
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 45 - 3D Printing: Introduction and Work Flow
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 46 - 3D Fabrication Techniques
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 47 - Gowning Procedure in Clean Room
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 48 - Introduction to Equipments: Desiccators
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 49 - PDMS Moulding procedure
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 50 - Introduction to Equipments: Pristaltic Pump
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 51 - Introduction to Equipments: Stereo Microscopy, Metallurgical Microscopy, Inverted Microscopy
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 52 - Micromanipulator
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 53 - Biosafety Cabinet and Ultrasonicbath
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 54 - Incubator Shaker
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 55 - Hotplate and Microcentrifuge
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 56 - Autoclave
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 57 - Impedance Analyser
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 58 - Rapid Prototyping using 3D Printer
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 59 - Etching Process
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 60 - Electronic System for Drug Screening
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 61 - Introduction to Equipments: DAQ
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 62 - Introduction to Equipments: DAQ (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 63 - Electronic Module for Gas sensor
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 64 - Fabrication process flow for a metal oxide gas sensor
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 65 - MEMS Simulation using Comsol Multiphysics
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 66 - Introduction to COMSOL Multiphysics
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 67 - COMSOL Examples for MEMS Applications
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 68 - COMSOL Examples for MEMS Applications (Continued...)
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 69 - Demonstration of Thermal Acutator and Understanding of Application Builder
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 70 - Closed loop control of temperature sensor
Link NOC:Electronic Systems for Cancer Diagnosis Lecture 71 - Experimental Set-up of closed loop control of temperature sensor
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 1 - Introduction to Op-amp
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 2 - Introduction Wafer Manufacturing Process and Clean room Protocols
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 3 - Introduction to Fabrication Process Technology and Op-amp
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 4 - Op-amp Characteristics and Datasheet Parameters
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 5 - Overview of Active Filters and Oscillators
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 6 - Overview of Op-amp Oscillators
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 7 - Introduction to ECG Experiment
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 8 - Design and Implementation of ECG Preprocessing Stage - Part 1
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 9 - Design and Implementation of ECG Preprocessing Stage - Part 2
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 10 - Design and Implementation of ECG Preprocessing Stage - Part 3
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 11 - Design and Implementation of ECG Preprocessing Stage - Part 4
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 12 - Design and Implementation of Peak Detector and Thresholding Circuit for ECG Signal Conditioning
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 13 - Experiment: Live Demonstration of ECG Signal Acquistion, Conditioning and Measurement of BPM
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 14 - Application: ECG Signals for detecting AF and the role of sensors
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 15 - Photolithography: Masks
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 16 - Understanding the process of photolithography
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 17 - Photolithography: Mask Aligner
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 18 - Photolithography: Designing of Mask Aligner System
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 19 - Fabrication of Piezoresistive Sensor
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 20 - Fabrication of MEMS based Catheter Contact Force Sensor
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 21 - Design of Speed Control of DC Motor: Introduction
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 22 - Design of Speed Control of DC Motor: Circuit Explanation
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 23 - Design of Speed Control of DC Motor: Encoder Calibration
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 24 - Design of Speed Control of DC Motor: Encoder Signal Conditioning Circuit - 1
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 25 - Design of Speed Control of DC Motor: Encoder Signal Conditioning Circuit - 2
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 26 - Design of Speed Control of DC Motor: Encoder Signal Conditioning Circuit - 3
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 27 - Design of Speed Control of DC Motor: Encoder Signal Conditioning Circuit - 4
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 28 - Design of Speed Control of DC Motor: Error Amplifier
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 29 - Design of Speed Control of a DC Motor using Op-amp: Controllers
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 30 - Design of Speed Control of a DC Motor using Op-amp: Circuit Implementation
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 31 - Design of Speed Control of a DC Motor using DAQ - Part 1
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 32 - Design of Speed Control of a DC Motor using DAQ - Part 2
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 33 - Design of Speed Control of a DC Motor using DAQ - Part 3
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 34 - Introduction to Hot-Wire Anemometer
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 35 - Signal-conditioning Circuit for Hot-Wire Anemometer
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 36 - Signal-conditioning Circuit for Hot-Wire Anemometer Part 2
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 37 - Signal-conditioning Circuit for Hot-Wire Anemometer: Simulation
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 38 - Signal-conditioning Circuit for Hot-Wire Anemometer: Experiment
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 39 - Introduction to Gas Sensors
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 40 - Fabrication Process for Gas Sensor
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 41 - Signalconditioning Circuit for Operating Heater Voltage of MQ-7 Gas Sensor - Part 1
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 42 - Signalconditioning Circuit for Operating Heater Voltage of MQ-7 Gas Sensor - Part 2
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 43 - Signalconditioning Circuit for Operating Heater Voltage of MQ-7 Gas Sensor - Part 3
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 44 - Fundamentals of Electrophysiological signals
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 45 - Fundamentals of EEG Signal
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 46 - Application of EEG Signal for Detection of Hearing Loss
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 47 - Closed loop control of temperature using DAQ and LabVIEW
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 48 - Experimental Set-up of closed loop control of temperature sensor
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 49 - Introduction to MEMS Simulation using Comsol Multiphysics
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 50 - Introduction to COMSOL Multiphysics
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 51 - COMSOL Examples for MEMS Applications
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 52 - COMSOL Examples for MEMS Applications (Continued...)
Link NOC:Electronic Modules for Industrial Applications using Op-Amps Lecture 53 - Demonstration of Thermal Acutator and Understanding of Application Builder
Link NOC:Sensors and Actuators Lecture 1 - Sensors - Part 1
Link NOC:Sensors and Actuators Lecture 2 - Sensors - Part 2
Link NOC:Sensors and Actuators Lecture 3 - Sensors - Part 3
Link NOC:Sensors and Actuators Lecture 4 - Sensors - Part 4
Link NOC:Sensors and Actuators Lecture 5 - Sensors - Part 5
Link NOC:Sensors and Actuators Lecture 6 - Recent Microsensors based system: E-Nose
Link NOC:Sensors and Actuators Lecture 7 - Recent Microsensors based system: Force Sensor, Basics of Actuators
Link NOC:Sensors and Actuators Lecture 8 - Microfabrication Basics
Link NOC:Sensors and Actuators Lecture 9 - Introduction to cleanroom
Link NOC:Sensors and Actuators Lecture 10 - Cleanroom Protocols
Link NOC:Sensors and Actuators Lecture 11 - Introduction to Cleanroom Equipments: Micromanipulator, Stereo Microscope, metallurgical microscope, Incubator, Static Incubator, Inverted Microscope, Oven, Autoclave, Sonicator
Link NOC:Sensors and Actuators Lecture 12 - Fabrication Process Flow of Microheater and Micromachining
Link NOC:Sensors and Actuators Lecture 13 - Wafer Bonding and PDMS moulding
Link NOC:Sensors and Actuators Lecture 14 - Overview of MEMS based sensors
Link NOC:Sensors and Actuators Lecture 15 - Introduction to Cleanroom Equipments: Impedance Analyzer, LCR Meter, Micromanipulator
Link NOC:Sensors and Actuators Lecture 16 - Introduction to Cleanroom Equipments: Biosafety Hood and safety
Link NOC:Sensors and Actuators Lecture 17 - Process Sensor Process Flow, Cell based Diagnosis Device
Link NOC:Sensors and Actuators Lecture 18 - Basics of Patterning and Drug Screening Device
Link NOC:Sensors and Actuators Lecture 19 - MEMS applications in automobile system
Link NOC:Sensors and Actuators Lecture 20 - Arduino Interfacing for Sensors and Actuators
Link NOC:Sensors and Actuators Lecture 21 - Demonstration of DC Motor as an actuator
Link NOC:Sensors and Actuators Lecture 22 - Demonstration of peristaltic pump using Arduino
Link NOC:Sensors and Actuators Lecture 23 - Demonstration of PDMS Patterning
Link NOC:Sensors and Actuators Lecture 24 - Crystal Orientation and Si-SiO2 interface
Link NOC:Sensors and Actuators Lecture 25 - Surface Profilometry and Physical Vapour Deposition Techniques
Link NOC:Sensors and Actuators Lecture 26 - Introduction to COMSOL Multiphysics and Modelling Examples
Link NOC:Sensors and Actuators Lecture 27 - Demonstration of Thermal Actuators using COMSOL
Link NOC:Sensors and Actuators Lecture 28 - Demonstration of MQ3 Gas sensor using Arduino
Link NOC:Sensors and Actuators Lecture 29 - Photolithography - Part 1
Link NOC:Sensors and Actuators Lecture 30 - Signal Conditioning Circuit for Temperature Sensors
Link NOC:Sensors and Actuators Lecture 31 - Demonstration of Microheaters in COMSOL Multiphysics
Link NOC:Sensors and Actuators Lecture 32 - Introduction to Cleanroom facilities for biomedical applications
Link NOC:Sensors and Actuators Lecture 33 - Physical Deposition Techniques
Link NOC:Sensors and Actuators Lecture 34 - Demonstration on peristaltic pump in cleanroom
Link NOC:Sensors and Actuators Lecture 35 - Installation of Oxygen Plasma System
Link NOC:Sensors and Actuators Lecture 36 - Demonstration of IR Based Sensor using Arduino
Link NOC:Sensors and Actuators Lecture 37 - Illustration of fabricated Microfluidic Device for biochips with PDMS moulding
Link NOC:Sensors and Actuators Lecture 38 - Photolithography - Part 2
Link NOC:Sensors and Actuators Lecture 39 - Photolithography - Part 3
Link NOC:Sensors and Actuators Lecture 40 - Introduction and Demonstration of Shape Memory Alloy
Link NOC:Sensors and Actuators Lecture 41 - Applications of Shape Memory Alloy as a light weight actuators
Link NOC:Sensors and Actuators Lecture 42 - Discussion on Fabricated Sensor with Silicon as Substrate
Link NOC:Sensors and Actuators Lecture 43 - Discussion and Microscopic Inspection of Fabricated Sensor with Silicon as a Substrate
Link NOC:Sensors and Actuators Lecture 44 - Tissue Deparaffinization for Biosensors
Link NOC:Sensors and Actuators Lecture 45 - Clean room guidelines and Cancer Dianostic tool
Link NOC:Sensors and Actuators Lecture 46 - Basics of Pressure Sensor and Demonstration using Arduino Microcontroller
Link NOC:Sensors and Actuators Lecture 47 - Basics of Stepper Motor and Demonstration using Arduino Microcontroller
Link NOC:Sensors and Actuators Lecture 48 - Microscopic Inspection of Diced wafers and CNT Sensing Layer for fabricated sensor
Link NOC:Sensors and Actuators Lecture 49 - Process flow for Microcantilever for Mechanical Phenotyping of breast cancer tissues
Link NOC:Sensors and Actuators Lecture 50 - Applications of microcantilever for Mechanical Phenotyping of breast cancer tissues
Link NOC:Sensors and Actuators Lecture 51 - Installation and Introduction to Physical Vapour Deposition System
Link NOC:Sensors and Actuators Lecture 52 - Human Machine Interface for Controlling Deposition System
Link NOC:Sensors and Actuators Lecture 53 - Flexible MEMS for phenotyping tissue properties - I
Link NOC:Sensors and Actuators Lecture 54 - Flexible MEMS for phenotyping tissue properties - II
Link NOC:Sensors and Actuators Lecture 55 - System Demonstration for Physical Vapor Deposition
Link NOC:Sensors and Actuators Lecture 56 - Introduction to CAD Modelling - I
Link NOC:Sensors and Actuators Lecture 57 - Introduction to CAD Modelling - II
Link NOC:Sensors and Actuators Lecture 58 - Biosensors for ETM Phenotyping of breast cancer tissues for better prognosis
Link NOC:Sensors and Actuators Lecture 59 - Biosensors for Electrothermal sensor
Link NOC:Sensors and Actuators Lecture 60 - MEMS based sensor for catheter contact force measurement
Link NOC:Sensors and Actuators Lecture 61 - Microfluidics based Drug Screening
Link NOC:Sensors and Actuators Lecture 62 - Basic aspects of 3D Printing
Link NOC:Sensors and Actuators Lecture 63 - 3D Printing Materials and Demonstration of Remote 3D Printing
Link NOC:Neural Networks for Signal Processing-I Lecture 1 - The human brain
Link NOC:Neural Networks for Signal Processing-I Lecture 2 - Introduction to Neural Networks
Link NOC:Neural Networks for Signal Processing-I Lecture 3 - Models of a neuron
Link NOC:Neural Networks for Signal Processing-I Lecture 4 - Feedback and network architectures
Link NOC:Neural Networks for Signal Processing-I Lecture 5 - Knowledge representation
Link NOC:Neural Networks for Signal Processing-I Lecture 6 - Prior information and invariances
Link NOC:Neural Networks for Signal Processing-I Lecture 7 - Learning processes
Link NOC:Neural Networks for Signal Processing-I Lecture 8 - Perceptron - 1
Link NOC:Neural Networks for Signal Processing-I Lecture 9 - Perceptron - 2
Link NOC:Neural Networks for Signal Processing-I Lecture 10 - Batch perceptron algorithm
Link NOC:Neural Networks for Signal Processing-I Lecture 11 - Perceptron and Bayes classifier
Link NOC:Neural Networks for Signal Processing-I Lecture 12 - Linear regression - 1
Link NOC:Neural Networks for Signal Processing-I Lecture 13 - Linear regression - 2
Link NOC:Neural Networks for Signal Processing-I Lecture 14 - Linear regression - 3
Link NOC:Neural Networks for Signal Processing-I Lecture 15 - Logistic regression
Link NOC:Neural Networks for Signal Processing-I Lecture 16 - Multi-layer perceptron - 1
Link NOC:Neural Networks for Signal Processing-I Lecture 17 - Multi-layer perceptron - 2
Link NOC:Neural Networks for Signal Processing-I Lecture 18 - Back propagation - 1
Link NOC:Neural Networks for Signal Processing-I Lecture 19 - Back propagation - 2
Link NOC:Neural Networks for Signal Processing-I Lecture 20 - XOR problem
Link NOC:Neural Networks for Signal Processing-I Lecture 21 - Universal approximation function
Link NOC:Neural Networks for Signal Processing-I Lecture 22 - Complexity Regularization and Cross validation
Link NOC:Neural Networks for Signal Processing-I Lecture 23 - Convolutional Neural Networks (CNN)
Link NOC:Neural Networks for Signal Processing-I Lecture 24 - Cover’s Theorem
Link NOC:Neural Networks for Signal Processing-I Lecture 25 - Multivariate interpolation problem
Link NOC:Neural Networks for Signal Processing-I Lecture 26 - Radial basis functions (RBF)
Link NOC:Neural Networks for Signal Processing-I Lecture 27 - Recursive least squares algorithm
Link NOC:Neural Networks for Signal Processing-I Lecture 28 - Comparison of RBF with MLP
Link NOC:Neural Networks for Signal Processing-I Lecture 29 - Kernel regression using RBFs
Link NOC:Neural Networks for Signal Processing-I Lecture 30 - Kernel Functions
Link NOC:Neural Networks for Signal Processing-I Lecture 31 - Basics of constrained optimization
Link NOC:Neural Networks for Signal Processing-I Lecture 32 - Optimization with equality constraint
Link NOC:Neural Networks for Signal Processing-I Lecture 33 - Optimization with inequality constraint
Link NOC:Neural Networks for Signal Processing-I Lecture 34 - Support Vector Machines (SVM)
Link NOC:Neural Networks for Signal Processing-I Lecture 35 - Optimal hyperplane for linearly separable patterns
Link NOC:Neural Networks for Signal Processing-I Lecture 36 - Quadratic optimization for finding optimal hyperplane
Link NOC:Neural Networks for Signal Processing-I Lecture 37 - Optimal hyperplane for non-linearly separable patterns
Link NOC:Neural Networks for Signal Processing-I Lecture 38 - Inner product kernel and Mercer’s theorem
Link NOC:Neural Networks for Signal Processing-I Lecture 39 - Optimal design of an SVM
Link NOC:Neural Networks for Signal Processing-I Lecture 40 - ε-insensitive loss function
Link NOC:Neural Networks for Signal Processing-I Lecture 41 - XOR problem revisited using SVMs
Link NOC:Neural Networks for Signal Processing-I Lecture 42 - Hilbert Space
Link NOC:Neural Networks for Signal Processing-I Lecture 43 - Reproducing Kernel Hilbert Space
Link NOC:Neural Networks for Signal Processing-I Lecture 44 - Representer Theorem
Link NOC:Neural Networks for Signal Processing-I Lecture 45 - Generalized applicability of the representer theorem
Link NOC:Neural Networks for Signal Processing-I Lecture 46 - Regularization Theory
Link NOC:Neural Networks for Signal Processing-I Lecture 47 - Euler-Lagrange Equation
Link NOC:Neural Networks for Signal Processing-I Lecture 48 - Regularization Networks
Link NOC:Neural Networks for Signal Processing-I Lecture 49 - Generalized RBF networks
Link NOC:Neural Networks for Signal Processing-I Lecture 50 - XOR problem revisited using RBF
Link NOC:Neural Networks for Signal Processing-I Lecture 51 - Structural Risk Minimization
Link NOC:Neural Networks for Signal Processing-I Lecture 52 - Bias-Variance Dilemma
Link NOC:Neural Networks for Signal Processing-I Lecture 53 - Estimation of regularization parameters
Link NOC:Neural Networks for Signal Processing-I Lecture 54 - Basics of L1 regularization
Link NOC:Neural Networks for Signal Processing-I Lecture 55 - Grafting
Link NOC:Neural Networks for Signal Processing-I Lecture 56 - Kernel PCA
Link NOC:Neural Networks for Signal Processing-I Lecture 57 - Hebbian based maximum eigen filter - 1
Link NOC:Neural Networks for Signal Processing-I Lecture 58 - Hebbian based maximum eigen filter - 2
Link NOC:Neural Networks for Signal Processing-I Lecture 59 - Hebbian based maximum eigen filter - 3
Link NOC:Neural Networks for Signal Processing-I Lecture 60 - VC dimension
Link NOC:Neural Networks for Signal Processing-I Lecture 61 - Autoencoders
Link NOC:Neural Networks for Signal Processing-I Lecture 62 - Denoising Autoencoders
Link NOC:Neural Networks for Signal Processing-I Lecture 63 - Demo - Perceptron
Link NOC:Neural Networks for Signal Processing-I Lecture 64 - Demo - Motivation for CNN
Link NOC:Neural Networks for Signal Processing-I Lecture 65 - Back propagation in Convolutional Neural Network
Link NOC:Neural Networks for Signal Processing-I Lecture 66 - Ethics in AI research and coverage summary
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 1 - Introduction to electronics products
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 2 - Examples from real life: Parts to system
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 3 - Common Simulation of flat prismatic parts
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 4 - Common flat parts enclosures
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 5 - Real life parts to scale on a graph
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 6 - Early First steps
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 7 - Top down, outside to internals
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 8 - Using a print and fabrication video
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 9 - Details of displays and keys
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 10 - Improvement on marking and skill
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 11 - Mass production in sheet metal
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 12 - Prototyping of user interfaces for concepts
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 13 - Stacking of equipment to make a system
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 14 - Recapitualising a sub system
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 15 - Off the shelf enclosures and making a user interface
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 16 - Looking around for concepts and integration
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 17 - Representation on paper
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 18 - Example features of surfaces and solids
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 19 - Simple and curved surfaces
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 20 - Describing inclined surfaces
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 21 - Basics of engineering Drawing
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 22 - Introduction to sizing and fits
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 23 - Practical mechanical assemblies
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 24 - Analogous Mechanical - Electronics detailing
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 25 - Solid modelling
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 26 - Importance of dimensioning
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 27 - Ease of editing redesign
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 28 - Dimensioning of electronics components
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 29 - 2D flat representation
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 30 - Electronics to Mechanical interfacing
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 31 - Complexity of 3D assemblies with wiring
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 32 - Illustrative simple design
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 33 - Practical detailing
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 34 - Rendered on screen
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 35 - Fastenings and hardware
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 36 - Fastener representation, deatiling
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 37 - Practical detailing.
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 38 - Recapitulation, context of course
Link NOC:Electronics Equipment Integration and Prototype Building Lecture 39 - Low cost is the key
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 1 - Getting started with NgSpice
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 2 - Refractoring the .cir
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 3 - Sub-circuits
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 4 - gschem and netlist generation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 5 - Setting up for simulation with Octave
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 6 - Getting started with equation based simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 7 - Resuming a simulation in Octave
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 8 - PV cell model - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 9 - PV cell characteristic - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 10 - PV cell - symbol and subcircuit
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 11 - Rectifier-capacitor filter - operation review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 12 - Rectifier-capacitor filter - NgSpice simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 13 - Rectifier-capacitor filter with non-idealities
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 14 - 3 phase Rectifier-capacitor filter
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 15 - Equation based simulation in Octave
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 16 - Passive power factor improvement - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 17 - Passive power factor circuit in NgSpice
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 18 - Buck converter - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 19 - Buck converter - NgSpice
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 20 - Boost converter - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 21 - Boost converter - NgSpice
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 22 - Buck-boost converter - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 23 - Buck-boost converter - NgSpice
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 24 - Equation based simulation of converters
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 25 - Forward Converter - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 26 - Forward Converter simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 27 - Understanding Core flux reset
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 28 - Core flux reset - simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 29 - Flyback converter - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 30 - Flyback converter - simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 31 - Pushpull converter - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 32 - Pushpull converter - simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 33 - Half bridge converter - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 34 - Half bridge converter - simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 35 - Full bridge converter - review
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 36 - Full bridge converter - simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 37 - Close loop operation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 38 - Close loop with feed forward control
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 39 - NgSpice simulation of close loop control
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 40 - Battery charging with current control
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 41 - Slope compensation for current control
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 42 - NgSpice simulation of battery charging
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 43 - Single phase PWM for single phase inverter
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 44 - NgSpice simulation of single phase PWM
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 45 - 2-axes theory for 3-phase systems
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 46 - Transformations for 2 and 3 axes systems
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 47 - Maximum power point tracking - NgSpice
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 48 - Space vector PWM - digital
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 49 - Space vector PWM - analog
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 50 - SVPWM analog - NgSpice simulation
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 51 - Induction motor model
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 52 - Induction motor simulation in Octave
Link NOC:Design and Simulation of Power Conversion using Open Source Tools Lecture 53 - V/F control of induction motor - NgSpice
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 1 - Cellular (Microscopic) Structure of the Central Nervous System (CNS)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 2 - Anatomical (Macroscopic) structure of the CNS
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 3 - Introduction to Cleanroom and IC Fabrication Techniques
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 4 - Introduction to EEG applications for Hearing Loss
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 5 - Electrophysiological Recordings
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 6 - Neocortical Circuits
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 7 - The resting Membrane Potential
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 8 - Applications of MEMS Fabrication Technologies
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 9 - Fundamentals of biopotentials and applications
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 10 - Fundamentals of EEG and applications
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 11 - The Action Potential (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 12 - The Action Potential (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 13 - Axonology, Neuronal Biophysics (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 14 - Axonology, Neuronal Biophysics (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 15 - Experimental Setup for EEG Recording
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 16 - Introduction to Cleanroom Protocols and Demonstration of Gowning Procedure
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 17 - Electromagnetic Stimulation of the Brain (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 18 - Electromagnetic Stimulation of the Brain (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 19 - Introduction to Event Related Potentials
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 20 - Introduction to 3D Printing
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 21 - 3D Printing: Applications and Demonstrations
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 22 - Introduction to Event Related Potentials (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 23 - Different Event Related Potentials (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 24 - Different Event Related Potentials (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 25 - Introduction to Silicone Wafer Processing Techniques
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 26 - Basics of Silicone Dioxide: Oxidation, Characterization and Applications
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 27 - Inverse Problem, EEG source localization (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 28 - Inverse Problem, EEG source localization (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 29 - Introduction to Brain Computer Interfaces
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 30 - Signal Conditioning Circuit for EEG Bioamplifiers
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 31 - Basics of BCI Experimentation: Introdcution BCI Applications
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 32 - Different Brain Computer Interfaces
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 33 - Introduction to EEGLAB, ERPLAB and AEP Demonstration (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 34 - Introduction to EEGLAB, ERPLAB and AEP Demonstration (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 35 - Introduction to Photolithography
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 36 - Basics of BCI Experimentation: Stimuli Generation and Insertion
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 37 - MMN Demonstration with EEGLAB and ERPLAB (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 38 - MMN Demonstration with EEGLAB and ERPLAB (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 39 - Introduction to Photolithography (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 40 - Basics of Instrumentation Amplifier and Online Simulation
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 41 - Basics of BCI Experimentation: Experimental Setup and Biopotential Acquisition
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 42 - P300 Demonstration with EEGLAB/ERPLAB (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 43 - P300 Demonstration with EEGLAB/ERPLAB (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 44 - Wavelet Analysis with VEP (1)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 45 - Details of Lithography, E-beam Lithography and Mask Aligner
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 46 - Basics of BCI Experimentation: Signal Acquisition using MATLAB (EEGLAB)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 47 - Wavelet Analysis with VEP (2)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 48 - Demonstration: Resting Membrane Potential
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 49 - Demonstration: Membrane Time Constant (τ)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 50 - Photoresist (SU-8) and soft lithography
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 51 - Physical Vapour Deposition: Thermal Evaporation
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 52 - Introduction to Epilepsy and Classification
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 53 - Epileptogenisis
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 54 - Demonstration: Membrane Length Constant (λ)
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 55 - Demonstration: Action Potential
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 56 - Demonstration: Voltage Clamp
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 57 - Demonstration: Synaptic Potentials & Current
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 58 - Physical Vapour Deposition: E-beam Evaporation
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 59 - Physical Vapour Deposition: Sputtering
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 60 - Recent Trends: Epilepsy Classification using EEG data
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 61 - Demonstration: Wireless EEG with dry electrodes
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 62 - Basics of EEG, ERP and acquisition
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 63 - Photolithography with example
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 64 - Stress Tissue Analysis using COMSOL Multiphysics
Link NOC:Introductory Neuroscience and Neuro-Instrumentation Lecture 65 - Recent Trends: Microelectrode Arrays and Deep Brain Stimulation
Link NOC:Information Theory Lecture 1 - What is information?
Link NOC:Information Theory Lecture 2 - How to model uncertainty?
Link NOC:Information Theory Lecture 3 - Basic concepts of probability
Link NOC:Information Theory Lecture 4 - Estimates of random variables
Link NOC:Information Theory Lecture 5 - Limit theorems
Link NOC:Information Theory Lecture 6 - Review
Link NOC:Information Theory Lecture 7 - Source model
Link NOC:Information Theory Lecture 8 - Motivating examples
Link NOC:Information Theory Lecture 9 - A compression problem
Link NOC:Information Theory Lecture 10 - Shannon entropy
Link NOC:Information Theory Lecture 11 - Random hash
Link NOC:Information Theory Lecture 12 - Review 2
Link NOC:Information Theory Lecture 13 - Uncertainty and randomness
Link NOC:Information Theory Lecture 14 - Total variation distance
Link NOC:Information Theory Lecture 15 - Generating almost random bits
Link NOC:Information Theory Lecture 16 - Generating samples from a distribution using uniform randomness
Link NOC:Information Theory Lecture 17 - Typical sets and entropy
Link NOC:Information Theory Lecture 18 - Review 3
Link NOC:Information Theory Lecture 19 - Hypothesis testing and estimation
Link NOC:Information Theory Lecture 20 - Examples
Link NOC:Information Theory Lecture 21 - The log-likelihood ratio test
Link NOC:Information Theory Lecture 22 - Kullback-Leibler divergence and Stein's lemma
Link NOC:Information Theory Lecture 23 - Properties of KL divergence
Link NOC:Information Theory Lecture 24 - Review 4
Link NOC:Information Theory Lecture 25 - Information per coin-toss
Link NOC:Information Theory Lecture 26 - Multiple hypothesis testing
Link NOC:Information Theory Lecture 27 - Error analysis of multiple hypothesis testing
Link NOC:Information Theory Lecture 28 - Mutual information
Link NOC:Information Theory Lecture 29 - Fano's inequality
Link NOC:Information Theory Lecture 30 - Measures of information
Link NOC:Information Theory Lecture 31 - Chain rules
Link NOC:Information Theory Lecture 32 - Shape of measures of information
Link NOC:Information Theory Lecture 33 - Data processing inequality
Link NOC:Information Theory Lecture 34 - Midyear Review
Link NOC:Information Theory Lecture 35 - Proof of Fano's inequality
Link NOC:Information Theory Lecture 36 - Variational formulae
Link NOC:Information Theory Lecture 37 - Capacity as information radius
Link NOC:Information Theory Lecture 38 - Proof of Pinsker's inequality
Link NOC:Information Theory Lecture 39 - Continuity of entropy
Link NOC:Information Theory Lecture 40 - Lower bound for compression
Link NOC:Information Theory Lecture 41 - Lower bound for hypothesis testing
Link NOC:Information Theory Lecture 42 - Review 7
Link NOC:Information Theory Lecture 43 - Lower bound for random number generation
Link NOC:Information Theory Lecture 44 - Strong converse
Link NOC:Information Theory Lecture 45 - Lower bound for minmax statistical estimation
Link NOC:Information Theory Lecture 46 - Variable length source codes
Link NOC:Information Theory Lecture 47 - Review 8
Link NOC:Information Theory Lecture 48 - Kraft's inequality
Link NOC:Information Theory Lecture 49 - Shannon code
Link NOC:Information Theory Lecture 50 - Huffman code
Link NOC:Information Theory Lecture 51 - Minmax Redundancy
Link NOC:Information Theory Lecture 52 - Type based universal compression
Link NOC:Information Theory Lecture 53 - Review 9
Link NOC:Information Theory Lecture 54 - Arithmetic code
Link NOC:Information Theory Lecture 55 - Online probability assignment
Link NOC:Information Theory Lecture 56 - Compression of databases: A scheme
Link NOC:Information Theory Lecture 57 - Compression of databases: A lower bound
Link NOC:Information Theory Lecture 58 - Repetition code
Link NOC:Information Theory Lecture 59 - Channel capacity
Link NOC:Information Theory Lecture 60 - Sphere packing bound for BSC
Link NOC:Information Theory Lecture 61 - Random coding bound for BSC
Link NOC:Information Theory Lecture 62 - Random coding bound for general channel
Link NOC:Information Theory Lecture 63 - Review 11
Link NOC:Information Theory Lecture 64 - Converse proof for channel coding theorem
Link NOC:Information Theory Lecture 65 - Additive Gaussian Noise channel
Link NOC:Information Theory Lecture 66 - Mutual information and differential entropy
Link NOC:Information Theory Lecture 67 - Channel coding theorem for Gaussan channel
Link NOC:Information Theory Lecture 68 - Parallel channels and water-filling
Link NOC:Photonic Integrated Circuit Lecture 1 - Photonic integrated circuits course introduction
Link NOC:Photonic Integrated Circuit Lecture 2 - Wave optics review
Link NOC:Photonic Integrated Circuit Lecture 3 - Electromagnetic theory review - 1
Link NOC:Photonic Integrated Circuit Lecture 4 - Electromagnetic theory review - 2
Link NOC:Photonic Integrated Circuit Lecture 5 - Photonic integrated circuits: an introduction
Link NOC:Photonic Integrated Circuit Lecture 6 - Photonic integrated circuits evolution
Link NOC:Photonic Integrated Circuit Lecture 7 - Photonic integrated circuit components - 1
Link NOC:Photonic Integrated Circuit Lecture 8 - Photonic integrated circuit components - 2
Link NOC:Photonic Integrated Circuit Lecture 9 - Dispersion
Link NOC:Photonic Integrated Circuit Lecture 10 - Phase velocity and Group velocity
Link NOC:Photonic Integrated Circuit Lecture 11 - Anisotropic medium and reciprocity
Link NOC:Photonic Integrated Circuit Lecture 12 - Polarisation in anisotropic medium
Link NOC:Photonic Integrated Circuit Lecture 13 - Optical axes
Link NOC:Photonic Integrated Circuit Lecture 14 - Waveguide structure
Link NOC:Photonic Integrated Circuit Lecture 15 - Waveguide modes - 1
Link NOC:Photonic Integrated Circuit Lecture 16 - Waveguide modes - 2
Link NOC:Photonic Integrated Circuit Lecture 17 - Field Equation
Link NOC:Photonic Integrated Circuit Lecture 18 - Guided modes in symmetric slab waveguides
Link NOC:Photonic Integrated Circuit Lecture 19 - Waveguide design - Boundary value formulation
Link NOC:Photonic Integrated Circuit Lecture 20 - Waveguide design - BVP solution
Link NOC:Photonic Integrated Circuit Lecture 21 - Waveguide design - Perturbation approach
Link NOC:Photonic Integrated Circuit Lecture 22 - Waveguide design - Effective Index method
Link NOC:Photonic Integrated Circuit Lecture 23 - Coupled mode theory - 1
Link NOC:Photonic Integrated Circuit Lecture 24 - Coupled mode theory - 2
Link NOC:Photonic Integrated Circuit Lecture 25 - Two-mode coupling
Link NOC:Photonic Integrated Circuit Lecture 26 - Co and counter propagating mode coupling
Link NOC:Photonic Integrated Circuit Lecture 27 - Phase matching
Link NOC:Photonic Integrated Circuit Lecture 28 - Directional coupler
Link NOC:Photonic Integrated Circuit Lecture 29 - Y-splitter
Link NOC:Photonic Integrated Circuit Lecture 30 - Multi-Mode Interference coupler
Link NOC:Photonic Integrated Circuit Lecture 31 - MZI
Link NOC:Photonic Integrated Circuit Lecture 32 - Micro-Ring Resonators
Link NOC:Photonic Integrated Circuit Lecture 33 - Light-chip coupling
Link NOC:Photonic Integrated Circuit Lecture 34 - End-fire coupling
Link NOC:Photonic Integrated Circuit Lecture 35 - Light Modulator introduction
Link NOC:Photonic Integrated Circuit Lecture 36 - Electro-Optic effect
Link NOC:Photonic Integrated Circuit Lecture 37 - Waveguide modulator
Link NOC:Photonic Integrated Circuit Lecture 38 - Optical transition in semiconductors
Link NOC:Photonic Integrated Circuit Lecture 39 - Transition rates
Link NOC:Photonic Integrated Circuit Lecture 40 - Absorption and gain in semiconductors
Link NOC:Photonic Integrated Circuit Lecture 41 - Semiconductor Light Emitting Diodes
Link NOC:Photonic Integrated Circuit Lecture 42 - Semiconductor Light Emitting Diodes (Continued...)
Link NOC:Photonic Integrated Circuit Lecture 43 - Semiconductor Lasers
Link NOC:Photonic Integrated Circuit Lecture 44 - Semiconductor photodetector
Link NOC:Photonic Integrated Circuit Lecture 45 - Semiconductor photodetector noise
Link NOC:Photonic Integrated Circuit Lecture 46 - Fabrication process - 1
Link NOC:Photonic Integrated Circuit Lecture 47 - Fabrication process - 2
Link NOC:Photonic Integrated Circuit Lecture 48 - PIC technology - Building a simple circuit
Link NOC:Photonic Integrated Circuit Lecture 49 - PIC for communication
Link NOC:Photonic Integrated Circuit Lecture 50 - PIC for sensing - 1
Link NOC:Photonic Integrated Circuit Lecture 51 - PIC for sensing - 2
Link NOC:Design for Internet of Things (2021) Lecture 1 - Introduction and Definition of IoT
Link NOC:Design for Internet of Things (2021) Lecture 2 - Location, Applications, and Power
Link NOC:Design for Internet of Things (2021) Lecture 3 - Challenges - Part 1
Link NOC:Design for Internet of Things (2021) Lecture 4 - Challenges - Part 2
Link NOC:Design for Internet of Things (2021) Lecture 5 - Challenges - Part 3
Link NOC:Design for Internet of Things (2021) Lecture 6 - Challenges - Part 4
Link NOC:Design for Internet of Things (2021) Lecture 7 - Unique ID
Link NOC:Design for Internet of Things (2021) Lecture 8 - Introduction to RFID
Link NOC:Design for Internet of Things (2021) Lecture 9 - RFID DEMO
Link NOC:Design for Internet of Things (2021) Lecture 10 - RFID Theory - 1
Link NOC:Design for Internet of Things (2021) Lecture 11 - RFID Theory - 2
Link NOC:Design for Internet of Things (2021) Lecture 12 - RFID Theory - 3
Link NOC:Design for Internet of Things (2021) Lecture 13 - Energy harvesting - 1
Link NOC:Design for Internet of Things (2021) Lecture 14 - Energy harvesting - 2
Link NOC:Design for Internet of Things (2021) Lecture 15 - Energy harvesting - 3
Link NOC:Design for Internet of Things (2021) Lecture 16 - Power management systems - 1
Link NOC:Design for Internet of Things (2021) Lecture 17 - Power management systems - 2
Link NOC:Design for Internet of Things (2021) Lecture 18 - Battery life calculation
Link NOC:Design for Internet of Things (2021) Lecture 19 - Introduction to System Design for low power
Link NOC:Design for Internet of Things (2021) Lecture 20 - LDO - 1
Link NOC:Design for Internet of Things (2021) Lecture 21 - LDO - 2
Link NOC:Design for Internet of Things (2021) Lecture 22 - LDO - 3
Link NOC:Design for Internet of Things (2021) Lecture 23 - Buck converter - 1
Link NOC:Design for Internet of Things (2021) Lecture 24 - Buck converter - 2
Link NOC:Design for Internet of Things (2021) Lecture 25 - Lab experiment
Link NOC:Design for Internet of Things (2021) Lecture 26 - Introduction to Sensors and Actuators
Link NOC:Design for Internet of Things (2021) Lecture 27 - Sensors
Link NOC:Design for Internet of Things (2021) Lecture 28 - Actuators
Link NOC:Design for Internet of Things (2021) Lecture 29 - Case study on Sensing and Actuation
Link NOC:Design for Internet of Things (2021) Lecture 30 - Introduction to low power software
Link NOC:Design for Internet of Things (2021) Lecture 31 - ADC driver design and development
Link NOC:Design for Internet of Things (2021) Lecture 32 - Power optimization
Link NOC:Design for Internet of Things (2021) Lecture 33 - Introduction to protocols
Link NOC:Design for Internet of Things (2021) Lecture 34 - MQTT - 1
Link NOC:Design for Internet of Things (2021) Lecture 35 - MQTT - 2
Link NOC:Design for Internet of Things (2021) Lecture 36 - COAP - 1
Link NOC:Design for Internet of Things (2021) Lecture 37 - COAP - 2
Link NOC:Design for Internet of Things (2021) Lecture 38 - Websockets
Link NOC:Design for Internet of Things (2021) Lecture 39 - Introduction to low power wireless - 1
Link NOC:Design for Internet of Things (2021) Lecture 40 - Introduction to low power wireless - 2
Link NOC:Design for Internet of Things (2021) Lecture 41 - Bluetooth low energy (BLE) - 1
Link NOC:Design for Internet of Things (2021) Lecture 42 - Bluetooth low energy (BLE) - 2
Link NOC:Design for Internet of Things (2021) Lecture 43 - IEEE 802.15.4e - 1
Link NOC:Design for Internet of Things (2021) Lecture 44 - IEEE 802.15.4e - 2
Link NOC:Design for Internet of Things (2021) Lecture 45 - IEEE 802.15.4e - 3
Link NOC:Design for Internet of Things (2021) Lecture 46 - Wi-Fi
Link NOC:Design for Internet of Things (2021) Lecture 47 - Introduction to Wide area technologies
Link NOC:Design for Internet of Things (2021) Lecture 48 - LoRa - 1
Link NOC:Design for Internet of Things (2021) Lecture 49 - LoRa - 2
Link NOC:Design for Internet of Things (2021) Lecture 50 - NBIoT, LTEM1
Link NOC:Design for Internet of Things (2021) Lecture 51 - BLE mesh technology
Link NOC:Design for Internet of Things (2021) Lecture 52 - Course conclusion
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 1 - Introduction to Signals and Systems
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 2 - MATLAB Demo on Signal Types and Moving Average System
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 3 - Microfabrication Basics for Biomedical Systems
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 4 - Fluid Flow in Body Lumen
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 5 - Fourier Series
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 6 - Continuous Time Fourier Transform
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 7 - Biological Tissues as disordered systems
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 8 - Introduction to electrical equivalent circuit models for biological systems
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 9 - Discrete Time Fourier Transform and Sampling
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 10 - Percolation Theory and applications in biological tissues
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 11 - Electrical properties of cells and tissues revisited: Examples and Applications
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 12 - Linear Algebra - I
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 13 - MATLAB Live Demo on Moving average and signal acquisition
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 14 - Oxidation and Thickness Characterization
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 15 - Basics of Photolithography with Process flow examples
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 16 - Linear Algebra - II
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 17 - Introduction to Biomedical Optics
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 18 - Optical Properties of Tissues and Mathematical modelling
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 19 - System of Linear Equations
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 20 - Scaling Laws
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 21 - Thermal Properties of a tissue
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 22 - Introduction to Probability
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 23 - Tissue Electrode Interface
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 24 - Thermal Properties of a tissue and cells
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 25 - Probability: Random Variables and CDF
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 26 - Basics of Silicon, Silicon Dioxide for Microfabrication Process
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 27 - Mechanical Properties of human brain tissues and modelling
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 28 - Probability: Important measures and generating functions
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 29 - Near Infrared Spectroscopy and Ultrasound Techniques
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 30 - Thermal Properties of Tissues and Modelling
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 31 - Multisim Simulations for Biomedical Signal Conditioning Circuit
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 32 - Cleanroom Entry Demonstration
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 33 - Spin Coating Demonstration
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 34 - Common Random Variables
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 35 - Introduction to signal Conditioning circuits for biomedical devices
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 36 - Siganl Conditioning circuits units and design
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 37 - E Beam Evaporation System Demonstration
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 38 - Joint and Marginal Probability Distribution
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 39 - Temprature Sensor Interfacing Analysis
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 40 - Demo of Temprature data acqusitio system using LabVIEW
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 41 - Recent Trends in Biomedical Electronic System Design
Link NOC:Mathematical Aspects of Biomedical Electronic System Design Lecture 42 - Aspects of Biomedical Electronics System Design
Link NOC:Concentration Inequalities Lecture 1 - Why study concentration inequalities?
Link NOC:Concentration Inequalities Lecture 2 - Chernoff bound
Link NOC:Concentration Inequalities Lecture 3 - Examples of Chernoff bound for common distributions
Link NOC:Concentration Inequalities Lecture 4 - Hoeffding and Bernstein inequalities
Link NOC:Concentration Inequalities Lecture 5 - Azuma and McDiarmid inequalities
Link NOC:Concentration Inequalities Lecture 6 - Bounding variance using the Efron-Stein inequality
Link NOC:Concentration Inequalities Lecture 7 - The Gaussian-Poincare inequality
Link NOC:Concentration Inequalities Lecture 8 - Tail bounds using the Efron-Stein inequality
Link NOC:Concentration Inequalities Lecture 9 - Herbst's argument and the entropy method
Link NOC:Concentration Inequalities Lecture 10 - Log-Sobolev inequalities
Link NOC:Concentration Inequalities Lecture 11 - Binary and Gaussian Log-Sobolev inequalities and concentration
Link NOC:Concentration Inequalities Lecture 12 - Variational formulae forKullback-Leibler and Bregman Divergence
Link NOC:Concentration Inequalities Lecture 13 - A modified log-Sobolev inequality and concentration
Link NOC:Concentration Inequalities Lecture 14 - Introduction to the transportation method for showing concentration bounds
Link NOC:Concentration Inequalities Lecture 15 - Transportation lemma and a proof of McDiarmid's inequality using the transportation method
Link NOC:Concentration Inequalities Lecture 16 - Concentration bounds for functions beyond bounded difference using transportation method
Link NOC:Concentration Inequalities Lecture 17 - Marton's conditional transportation cost inequality
Link NOC:Concentration Inequalities Lecture 18 - Isoperimetry and concentration of measure
Link NOC:Concentration Inequalities Lecture 19 - Isoperimetry and bounded difference
Link NOC:Concentration Inequalities Lecture 20 - Equivalence of Stam's inequality and log Sobolev inequality
Link NOC:Concentration Inequalities Lecture 21 - An information theoretic proof of log Sobolev inequality
Link NOC:Concentration Inequalities Lecture 22 - Hypercontractivity and strong data processing inequality for Rényi divergence
Link NOC:Concentration Inequalities Lecture 23 - An information theoretic characterization of hypercontractivity
Link NOC:Concentration Inequalities Lecture 24 - Equivalence of Gaussian hypercontractivity and Gaussian log Sobolev inequality
Link NOC:Concentration Inequalities Lecture 25 - Uniform deviation bounds for random walks and the law of the iterated logarithm
Link NOC:Concentration Inequalities Lecture 26 - Self normalized concentration inequalities and application to online regression
Link NOC:Real-Time Digital Signal Processing Lecture 1 - Introduction
Link NOC:Real-Time Digital Signal Processing Lecture 2 - Basics of Signal Processing
Link NOC:Real-Time Digital Signal Processing Lecture 3 - Lab - CCS
Link NOC:Real-Time Digital Signal Processing Lecture 4 - Number System
Link NOC:Real-Time Digital Signal Processing Lecture 5 - Architecture - 1
Link NOC:Real-Time Digital Signal Processing Lecture 6 - Architecture - 2
Link NOC:Real-Time Digital Signal Processing Lecture 7 - Real-time Constraints
Link NOC:Real-Time Digital Signal Processing Lecture 8 - FIR - Filters
Link NOC:Real-Time Digital Signal Processing Lecture 9 - Pipelining and Parallel Processing for Low Power Applications - I
Link NOC:Real-Time Digital Signal Processing Lecture 10 - Pipelining and Parallel Processing for Low Power Applications - II
Link NOC:Real-Time Digital Signal Processing Lecture 11 - Lab: Sine Generation
Link NOC:Real-Time Digital Signal Processing Lecture 12 - IIR Filters - 1
Link NOC:Real-Time Digital Signal Processing Lecture 13 - IIR Filters - 2
Link NOC:Real-Time Digital Signal Processing Lecture 14 - Lab: Sine Generatioon, FIR and IIR
Link NOC:Real-Time Digital Signal Processing Lecture 15 - Lab 3 IIR Filter as Resonator
Link NOC:Real-Time Digital Signal Processing Lecture 16 - Lab 4 Use of FDA tool box to generate co-efficients
Link NOC:Real-Time Digital Signal Processing Lecture 17 - Lab: Real-Time Audio Output through Sine Generation
Link NOC:Real-Time Digital Signal Processing Lecture 18 - IIR Filters 4
Link NOC:Real-Time Digital Signal Processing Lecture 19 - Lab: FIR Filter in generation of music
Link NOC:Real-Time Digital Signal Processing Lecture 20 - Lab: Real-Time Audio Output through FIR Filter
Link NOC:Real-Time Digital Signal Processing Lecture 21 - DFT, DTFT, twiddle factors, properties, circular convolution and examples
Link NOC:Real-Time Digital Signal Processing Lecture 22 - Complexity of Filtering and the FFT
Link NOC:Real-Time Digital Signal Processing Lecture 23 - Lab: Filtering Using FFT
Link NOC:Real-Time Digital Signal Processing Lecture 24 - Lab: FFT in CCS
Link NOC:Real-Time Digital Signal Processing Lecture 25 - FFT - 1
Link NOC:Real-Time Digital Signal Processing Lecture 26 - FFT - 2
Link NOC:Real-Time Digital Signal Processing Lecture 27 - FFT - 3
Link NOC:Real-Time Digital Signal Processing Lecture 28 - Overlap - Add
Link NOC:Real-Time Digital Signal Processing Lecture 29 - Overlap Save Method
Link NOC:Real-Time Digital Signal Processing Lecture 30 - Lab: Overlap Add and Save Method using MATLAB
Link NOC:Real-Time Digital Signal Processing Lecture 31 - Correlation
Link NOC:Real-Time Digital Signal Processing Lecture 32 - Lab: Different ways of implementing FFT in CCS
Link NOC:Real-Time Digital Signal Processing Lecture 33 - Adaptive Filter
Link NOC:Real-Time Digital Signal Processing Lecture 34 - Lab: LMS Algorith in MATLAB
Link NOC:Real-Time Digital Signal Processing Lecture 35 - LMS Algorithm
Link NOC:Real-Time Digital Signal Processing Lecture 36 - Lab: Error surface and error contour
Link NOC:Real-Time Digital Signal Processing Lecture 37 - Adaptive Filter Applications
Link NOC:Real-Time Digital Signal Processing Lecture 38 - Lab: Application of adaptive filter in MATLAB
Link NOC:Real-Time Digital Signal Processing Lecture 39 - Adaptive Echo Cancellation
Link NOC:Real-Time Digital Signal Processing Lecture 40 - Lab: Application of adaptive filter in CCS, Echo, scrambling and graphic equilizer in MATLAB
Link NOC:Real-Time Digital Signal Processing Lecture 41 - Graphic Equalizer
Link NOC:Real-Time Digital Signal Processing Lecture 42 - Lab: Adaptive filters (MATLAB)
Link NOC:Real-Time Digital Signal Processing Lecture 43 - Speech Coding - I
Link NOC:Real-Time Digital Signal Processing Lecture 44 - Speech Coding - II
Link NOC:Real-Time Digital Signal Processing Lecture 45 - Speech Coding - III
Link NOC:Real-Time Digital Signal Processing Lecture 46 - Lab: LPC for speech synthesis
Link NOC:Real-Time Digital Signal Processing Lecture 47 - Discrete Cosine Transform - 1
Link NOC:Real-Time Digital Signal Processing Lecture 48 - Discrete Cosine Transform - 2
Link NOC:Real-Time Digital Signal Processing Lecture 49 - Discrete Cosine Transform - 3
Link NOC:Real-Time Digital Signal Processing Lecture 50 - Discrete Cosine Transform - 4
Link NOC:Real-Time Digital Signal Processing Lecture 51 - Lab: Adaptive filters (CCS) - 1
Link NOC:Real-Time Digital Signal Processing Lecture 52 - Lab: Adaptive filters (CCS) - 2
Link NOC:Real-Time Digital Signal Processing Lecture 53 - Lab: Discrete Cosine Transformation
Link NOC:Real-Time Digital Signal Processing Lecture 54 - Lab: Echogeneration
Link NOC:Real-Time Digital Signal Processing Lecture 55 - Lab: Using JiDSP
Link NOC:Real-Time Digital Signal Processing Lecture 56 - Summary
Link NOC:Advanced Neural Science for Engineers Lecture 1 - Introduction to Biomedical Research
Link NOC:Advanced Neural Science for Engineers Lecture 2 - Fabricated Biosensors and Systems
Link NOC:Advanced Neural Science for Engineers Lecture 3 - Lab 1 - Introduction to the Fabrication lab
Link NOC:Advanced Neural Science for Engineers Lecture 4 - Lab 2 - Cleanroom and Gowning Protocol
Link NOC:Advanced Neural Science for Engineers Lecture 5 - Developed Systems at a glance
Link NOC:Advanced Neural Science for Engineers Lecture 6 - Silicon and Silicon Dioxide
Link NOC:Advanced Neural Science for Engineers Lecture 7 - Piranha Cleaning of Silicon Wafer
Link NOC:Advanced Neural Science for Engineers Lecture 8 - Polyimide Coating on Silicon Wafer
Link NOC:Advanced Neural Science for Engineers Lecture 9 - Thermal Oxidation of Silicon and Thickness measurement
Link NOC:Advanced Neural Science for Engineers Lecture 10 - Fundamental of Physical Vapour Deposition
Link NOC:Advanced Neural Science for Engineers Lecture 11 - Lab 3 - Lithography: Demonstration
Link NOC:Advanced Neural Science for Engineers Lecture 12 - Sputtering
Link NOC:Advanced Neural Science for Engineers Lecture 13 - Basics of Photolithography
Link NOC:Advanced Neural Science for Engineers Lecture 14 - Lab 4 - E-Beam Evaporation: Demo
Link NOC:Advanced Neural Science for Engineers Lecture 15 - Photolithography - II
Link NOC:Advanced Neural Science for Engineers Lecture 16 - Photolithography - III
Link NOC:Advanced Neural Science for Engineers Lecture 17 - Lab 5 - E-Beam Evaporation: Demo - II
Link NOC:Advanced Neural Science for Engineers Lecture 18 - Lab 6 - Liftoff Demonstration
Link NOC:Advanced Neural Science for Engineers Lecture 19 - Lithography Optics - I
Link NOC:Advanced Neural Science for Engineers Lecture 20 - Soft Lithography - I
Link NOC:Advanced Neural Science for Engineers Lecture 21 - Soft Lithography - II
Link NOC:Advanced Neural Science for Engineers Lecture 22 - Lab 7 - Sputtering Demonstration - I
Link NOC:Advanced Neural Science for Engineers Lecture 23 - Lab 8 - Sputtering Demonstration - II
Link NOC:Advanced Neural Science for Engineers Lecture 24 - Thin Film Deposition: CVD - I
Link NOC:Advanced Neural Science for Engineers Lecture 25 - Thin Film Deposition: CVD - II
Link NOC:Advanced Neural Science for Engineers Lecture 26 - Lithography Optics - II
Link NOC:Advanced Neural Science for Engineers Lecture 27 - Role of Fabrication in Neural Engineering
Link NOC:Advanced Neural Science for Engineers Lecture 28 - Micromachining
Link NOC:Advanced Neural Science for Engineers Lecture 29 - Overview of Experimental Neurophysiology
Link NOC:Advanced Neural Science for Engineers Lecture 30 - Fabrication of Neural Implants
Link NOC:Advanced Neural Science for Engineers Lecture 31 - Introduction to Packaging for Neural Systems
Link NOC:Advanced Neural Science for Engineers Lecture 32 - Lab 9 - 3D Printing for neural devices
Link NOC:Advanced Neural Science for Engineers Lecture 33 - Introduction to Biopotentials
Link NOC:Advanced Neural Science for Engineers Lecture 34 - EEG: Introduction, Demonstration and Applications
Link NOC:Advanced Neural Science for Engineers Lecture 35 - Neural Implants: Fabrication and Characterization
Link NOC:Advanced Neural Science for Engineers Lecture 36 - Design of Wireless Biphasic Pulse Generator
Link NOC:Advanced Neural Science for Engineers Lecture 37 - Basics of EEG/ERP Experimental Desing
Link NOC:Advanced Neural Science for Engineers Lecture 38 - Micromachining and Etching
Link NOC:Advanced Neural Science for Engineers Lecture 39 - Epileptic Seizure Detection and Classification
Link NOC:Advanced Neural Science for Engineers Lecture 40 - Newborn Hearing Screening - I
Link NOC:Advanced Neural Science for Engineers Lecture 41 - Newborn Hearing Screening - II
Link NOC:Advanced Neural Science for Engineers Lecture 42 - Applications of EEG/ERP Experimental Design
Link NOC:Advanced Neural Science for Engineers Lecture 43 - Flexible MEA for Electrocorticography Signal Acquisition
Link NOC:Advanced Neural Science for Engineers Lecture 44 - Flexible biodegradable MEAs
Link NOC:Advanced Neural Science for Engineers Lecture 45 - Microneedle Electrode Array
Link NOC:Advanced Neural Science for Engineers Lecture 46 - Neurosurgery-based MEA Implantation - I
Link NOC:Advanced Neural Science for Engineers Lecture 47 - Neurosurgery-based MEA Implantation - II
Link NOC:Advanced Neural Science for Engineers Lecture 48 - Neurosurgery-based MEA Implantation - III
Link NOC:Advanced Neural Science for Engineers Lecture 49 - Neurosurgery-based MEA Implantation - IV
Link NOC:Advanced Neural Science for Engineers Lecture 50 - Deep Brain Stimulation/Recording for Parkinson's - I
Link NOC:Advanced Neural Science for Engineers Lecture 51 - Deep Brain Stimulation/Recording for Parkinson's - II
Link NOC:Advanced Neural Science for Engineers Lecture 52 - Computational Neuroscience Fundamentals
Link NOC:Advanced Neural Science for Engineers Lecture 53 - Mathematical Analysis in Neural Science
Link NOC:Advanced Neural Science for Engineers Lecture 54 - Neuroanatomy for Neural Engineering
Link NOC:Design of Electric Motors Lecture 1 - History Prospect of Electrical Machines
Link NOC:Design of Electric Motors Lecture 2 - Electric Fields
Link NOC:Design of Electric Motors Lecture 3 - Magnetic Fields - 1
Link NOC:Design of Electric Motors Lecture 4 - Magnetic Fields - 2
Link NOC:Design of Electric Motors Lecture 5 - Electric and Magnetic Circuits Interface
Link NOC:Design of Electric Motors Lecture 6 - Magnetic Materials and Concepts of BH Curves
Link NOC:Design of Electric Motors Lecture 7 - Analysis of Magnetic Circuits With and Without Air Gaps
Link NOC:Design of Electric Motors Lecture 8 - Example Problems of Magnetic Circuits
Link NOC:Design of Electric Motors Lecture 9 - Magnetic Circuits with Multiple Windings and Permanent Magnets
Link NOC:Design of Electric Motors Lecture 10 - Force Equations in Electromechanical Systems - 1
Link NOC:Design of Electric Motors Lecture 11 - Force Equations in Electromechanical Systems - 2
Link NOC:Design of Electric Motors Lecture 12 - Design of Electromagnetic Systems
Link NOC:Design of Electric Motors Lecture 13 - Realization of Electrical Machines - 1
Link NOC:Design of Electric Motors Lecture 14 - Realization of Electrical Machines - 2
Link NOC:Design of Electric Motors Lecture 15 - Magnetic Fields in DC Machines - 1
Link NOC:Design of Electric Motors Lecture 16 - Magnetic Fields in AC Machines - 1
Link NOC:Design of Electric Motors Lecture 17 - Magnetic Fields in AC Machines - 2
Link NOC:Design of Electric Motors Lecture 18 - Magnetic Fields in AC Machines - 3
Link NOC:Design of Electric Motors Lecture 19 - MMFDistribution ofAC Machines
Link NOC:Design of Electric Motors Lecture 20 - Basics of Electrical Machine Windings
Link NOC:Design of Electric Motors Lecture 21 - Stator winding design-single layer winding
Link NOC:Design of Electric Motors Lecture 22 - Stator winding design-double layer winding
Link NOC:Design of Electric Motors Lecture 23 - Stator Winding Design-Fractional Slot Double Layer Winding
Link NOC:Design of Electric Motors Lecture 24 - Variable Pole Machine Stator Winding Design (Pole-Phase Modulation) - 1
Link NOC:Design of Electric Motors Lecture 25 - Variable Pole Machine Stator Winding Design (Pole-Phase Modulation) - 2
Link NOC:Design of Electric Motors Lecture 26 - Importance of Motor Design and Standards of Electric Motors
Link NOC:Design of Electric Motors Lecture 27 - Electric Machine Sizing Equations-Output Power and Volume (D2L) Product Equation
Link NOC:Design of Electric Motors Lecture 28 - Lab Session on Re-winding of Induction Motor (Example: Double Layer Winding)
Link NOC:Design of Electric Motors Lecture 29 - The Figure of Merits for Electric Motors and Aspect Ratio to Decouple the D2L Product
Link NOC:Design of Electric Motors Lecture 30 - Electric Machine Sizing Equations-Output Power Equation in terms of D3L Product - 1
Link NOC:Design of Electric Motors Lecture 31 - Electric Machine Sizing Equations-Output Power Equation in terms of D3L Product - 2
Link NOC:Design of Electric Motors Lecture 32 - Analysis of Copper Function and Output Function w r t the Electric Machine D3L Product Eqn
Link NOC:Design of Electric Motors Lecture 33 - Example Problems on Output Power Equation in terms of D3L Product
Link NOC:Design of Electric Motors Lecture 34 - Electric Machine Sizing Equations-Output Power Equation in terms of D the power 2.5 L Product
Link NOC:Design of Electric Motors Lecture 35 - Design Procedure of an Electric Machine
Link NOC:Design of Electric Motors Lecture 36 - Name Plate Details and Datasheets of Induction Motor
Link NOC:Design of Electric Motors Lecture 37 - Design of Induction Machine- Stator Design - 1 (Stator Core design)
Link NOC:Design of Electric Motors Lecture 38 - Design of Induction Machine- Stator Design - 2 (Stator Winding Design)
Link NOC:Design of Electric Motors Lecture 39 - Design of Induction Machine- Stator Design - 3 (Stator Slot Geometry)
Link NOC:Design of Electric Motors Lecture 40 - Design of Induction Machine- Rotor Design - 1 (Rotor Slots Selection)
Link NOC:Design of Electric Motors Lecture 41 - Design of Induction Machine- Rotor Design - 2 (Rotor MMF and Bar Currents)
Link NOC:Design of Electric Motors Lecture 42 - Design of Induction Machine- Rotor Design - 3 (Rotor Slot Geometry)
Link NOC:Design of Electric Motors Lecture 43 - Design of Induction Machine- Rotor Design - 4 (Skewing of Rotor)
Link NOC:Design of Electric Motors Lecture 44 - Design of Induction Machine- Rotor Design - 4 (Resistance of Rotor Winding)
Link NOC:Design of Electric Motors Lecture 45 - Carter's Coefficient of Electrical Machines
Link NOC:Design of Electric Motors Lecture 46 - Effective Length Equations of the Machine Core with Different Stator and Rotor Lengths
Link NOC:Design of Electric Motors Lecture 47 - Stator MMF and Magnetizing Current Equations of Induction Machine
Link NOC:Design of Electric Motors Lecture 48 - Magnetizing Inductance of Induction Machine
Link NOC:Design of Electric Motors Lecture 49 - Stator and Rotor Leakage Inductances of Induction Machine
Link NOC:Design of Electric Motors Lecture 50 - Equivalent Circuit Parameters of Induction Machine
Link NOC:Design of Electric Motors Lecture 51 - Loss Calculation of Induction Machine - 1
Link NOC:Design of Electric Motors Lecture 52 - Loss Calculation of Induction Machine - 2 and Performance Parameters of Induction Motor
Link NOC:Design of Electric Motors Lecture 53 - Switched Reluctance Machine Sizing Equations-Output Power and Volume (D2L) Product Equation
Link NOC:Design of Electric Motors Lecture 54 - The Figure of Merits for SRM and Example Problem on Output Power Equation i t f D2L Product
Link NOC:Design of Electric Motors Lecture 55 - Design of Switched Reluctance Machine: Stator Design - 1
Link NOC:Design of Electric Motors Lecture 56 - Design of Switched Reluctance Machine: Stator Design - 2 and Rotor Design
Link NOC:Design of Electric Motors Lecture 57 - Procedure for Calculation of SRM Inductance: Aligned Inductance - 1
Link NOC:Design of Electric Motors Lecture 58 - Calculation of SRM Inductance: Aligned Inductance - 2
Link NOC:Design of Electric Motors Lecture 59 - Efficiency and Loss Calculation of SRM
Link NOC:Design of Electric Motors Lecture 60 - Importance of Thermal Design and Thermal Limits for Electrical Machines
Link NOC:Design of Electric Motors Lecture 61 - Electric and Thermal Circuits Interface
Link NOC:Design of Electric Motors Lecture 62 - Heat Transfer Methods and Basic Equations for Thermal Resistance
Link NOC:Design of Electric Motors Lecture 63 - Heat Flow in Electrical Machines
Link NOC:Design of Electric Motors Lecture 64 - Cooling Methods and Standards for Electrical Machines
Link NOC:Design of Electric Motors Lecture 65 - Basics of Thermal Equivalent Circuits
Link NOC:Design of Electric Motors Lecture 66 - Thermal Equivalent Circuit - 1
Link NOC:Design of Electric Motors Lecture 67 - Thermal Equivalent Circuit - 2
Link NOC:Basics of Semiconductor Microwave Devices Lecture 1 - An Introduction to the course and outline of the course
Link NOC:Basics of Semiconductor Microwave Devices Lecture 2 - Historical overview of the development of microwave devices
Link NOC:Basics of Semiconductor Microwave Devices Lecture 3 - Applications of semiconductor microwave devices
Link NOC:Basics of Semiconductor Microwave Devices Lecture 4 - Applications of semiconductor microwave devices (Continued...)
Link NOC:Basics of Semiconductor Microwave Devices Lecture 5 - Heterojunction device physics
Link NOC:Basics of Semiconductor Microwave Devices Lecture 6 - Heterojunction device physics (Continued...) and III-nitrides
Link NOC:Basics of Semiconductor Microwave Devices Lecture 7 - III-nitrides and polarization
Link NOC:Basics of Semiconductor Microwave Devices Lecture 8 - III-nitride high electron mobility transistors
Link NOC:Basics of Semiconductor Microwave Devices Lecture 9 - Varactors and Schottky multipliers
Link NOC:Basics of Semiconductor Microwave Devices Lecture 10 - Varactors and Schottky multipliers (Continued...)
Link NOC:Basics of Semiconductor Microwave Devices Lecture 11 - Diodes for microwave applications
Link NOC:Basics of Semiconductor Microwave Devices Lecture 12 - IMPATT diode
Link NOC:Basics of Semiconductor Microwave Devices Lecture 13 - Tunnel diodes and Introduction to Gunn diodes
Link NOC:Basics of Semiconductor Microwave Devices Lecture 14 - Gunn diode and its modes
Link NOC:Basics of Semiconductor Microwave Devices Lecture 15 - Introduction to MESFETs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 16 - Advanced concepts of GaAs MESFETs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 17 - GaAs MESFET fabrication and practical aspects
Link NOC:Basics of Semiconductor Microwave Devices Lecture 18 - Practical aspects of FET design and small-signal model
Link NOC:Basics of Semiconductor Microwave Devices Lecture 19 - GaAs MESFETs: cut-off frequency and aspects of power devices
Link NOC:Basics of Semiconductor Microwave Devices Lecture 20 - GaAs MESFETs for power amplifiers
Link NOC:Basics of Semiconductor Microwave Devices Lecture 21 - Modulation doping in compound semiconductors
Link NOC:Basics of Semiconductor Microwave Devices Lecture 22 - Band diagram of MODFETs/HEMTs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 23 - Design issues and methodology for microwave HEMTs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 24 - Small-signal model and noise in HEMTs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 25 - The concept of pseudomorphic or pHEMTs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 26 - Multi-finger HEMTs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 27 - pHEMTs for low noise and introduction to InP HEMT
Link NOC:Basics of Semiconductor Microwave Devices Lecture 28 - InP HEMTs for power and the concept of metamorphic HEMTs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 29 - AlGaN/GaN HEMT: applications, structure, substrates and FOM
Link NOC:Basics of Semiconductor Microwave Devices Lecture 30 - AlGaN/GaN HEMT: device basics, current collapse and passivation
Link NOC:Basics of Semiconductor Microwave Devices Lecture 31 - AlGaN/GaN HEMT: gate process, field-plate and trade-offs in design
Link NOC:Basics of Semiconductor Microwave Devices Lecture 32 - AlGaN/GaN HEMT: Practical aspects and commercial HEMTs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 33 - GaN RF HEMT on eval board, and emerging topics of research
Link NOC:Basics of Semiconductor Microwave Devices Lecture 34 - Linearity in GaN HEMTs - A device perspective
Link NOC:Basics of Semiconductor Microwave Devices Lecture 35 - Nanoscale MOSFETs and short channel effects
Link NOC:Basics of Semiconductor Microwave Devices Lecture 36 - Parasitic resistances and capacitances in nanoscale MOSFETs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 37 - RF MOSFET Layout and RF Silicon-on-insulator
Link NOC:Basics of Semiconductor Microwave Devices Lecture 38 - Noise in MOSFETs and Introduction to LDMOS
Link NOC:Basics of Semiconductor Microwave Devices Lecture 39 - Working of LDMOS and VDMOS
Link NOC:Basics of Semiconductor Microwave Devices Lecture 40 - LDMOS: Parasitics, and the concept of RESURF
Link NOC:Basics of Semiconductor Microwave Devices Lecture 41 - LDMOS: HCI, snapback, finger layout and some aspects of commercial devices
Link NOC:Basics of Semiconductor Microwave Devices Lecture 42 - BJT: common base and common emitter from the device point of view
Link NOC:Basics of Semiconductor Microwave Devices Lecture 43 - BJT: Kirk effect, Ebers-Moll model and base transit time
Link NOC:Basics of Semiconductor Microwave Devices Lecture 44 - BJT: small-signal model, gain and cut-off frequency
Link NOC:Basics of Semiconductor Microwave Devices Lecture 45 - BJT: Emitter and base designs and drift transistor
Link NOC:Basics of Semiconductor Microwave Devices Lecture 46 - Collector design in modern BJT and Introduction to HBTs
Link NOC:Basics of Semiconductor Microwave Devices Lecture 47 - HBT: base current and collapse of the current gain
Link NOC:Basics of Semiconductor Microwave Devices Lecture 48 - High-frequency HBT and Introduction to SiGe HBT
Link NOC:Basics of Semiconductor Microwave Devices Lecture 49 - SiGe HBT: various resistances and capacitances, scaling and aspects of BiCMOS
Link NOC:Basics of Semiconductor Microwave Devices Lecture 50 - Basics of microwave: transmission line theory
Link NOC:Basics of Semiconductor Microwave Devices Lecture 51 - Waveguides, T-lines and introduction to 2-port networks
Link NOC:Basics of Semiconductor Microwave Devices Lecture 52 - S-parameters and the basics of Smith Chart
Link NOC:Basics of Semiconductor Microwave Devices Lecture 53 - Smith chart and matching
Link NOC:Basics of Semiconductor Microwave Devices Lecture 54 - Impedance matching using Smith Chart and stub line
Link NOC:Basics of Semiconductor Microwave Devices Lecture 55 - Passives in microwave circuits
Link NOC:Basics of Semiconductor Microwave Devices Lecture 56 - Inductors in microwave circuits
Link NOC:Basics of Semiconductor Microwave Devices Lecture 57 - More on passive elements in microwave circuits
Link NOC:Basics of Semiconductor Microwave Devices Lecture 58 - On-wafer measurement and S-parameters
Link NOC:Basics of Semiconductor Microwave Devices Lecture 59 - On-wafer de-embedding
Link NOC:Basics of Semiconductor Microwave Devices Lecture 60 - On-wafer and fixture-based measurements and calibration
Link NOC:Basics of Semiconductor Microwave Devices Lecture 61 - More on fixtures and basic transistor concepts for power amplifiers