NOC:Convective Heat Transfer: Fundamentals and Some Applications

Lecture 1 - Introduction to Convection - 1

Lecture 2 - Introduction to Convection - 2

Lecture 3 - Introduction to Convection - 3

Lecture 4 - Introduction to Convection - 4

Lecture 5 - Introduction to Convection - 5

Lecture 6 - Fluid Acceleration

Lecture 7 - Reynolds transport theorem

Lecture 8 - General motion of fluid

Lecture 9 - Conservation of Mass and Momentum

Lecture 10 - Conservation of Momentum

Lecture 11 - Conservation of Energy - 1

Lecture 12 - Conservation of Energy - 2

Lecture 13 - Dimensional Similarity

Lecture 14 - Scale Analysis - 1

Lecture 15 - Scale Analysis - 2

Lecture 16 - Scale Analysis - 3 and Reynolds Analogy

Lecture 17 - Relationship between Stress and Strain rate

Lecture 18 - Introduction to Similarity method

Lecture 19 - Similarity method : Momentum equation - 1

Lecture 20 - Similarity method : Momentum equation - 2

Lecture 21 - Similarity method : Blasius solution

Lecture 22 - Similarity method : Energy equation - 1

Lecture 23 - Similarity method : Energy equation - 2

Lecture 24 - Similarity method : Energy equation - 3

Lecture 25 - Definition of various thicknesses, Introduction to Integral method

Lecture 26 - Integral method - 1

Lecture 27 - Integral method - 2

Lecture 28 - Integral method - 3

Lecture 29 - Integral method : Energy equation - 1

Lecture 30 - Integral method : Energy equation - 2

Lecture 31 - Introduction to Turbulence

Lecture 32 - Reynolds averaging of Governing equations and Universal Velocity Profile

Lecture 33 - Reynolds averaging of Energy equation, Concept of Eddy Diffusivity of Momentum and Eddy Diffusivity of Heat

Lecture 34 - Boundary layer equation, Two Layer Assumptions, Prandtl's Mixing Length Hypothesis

Lecture 35 - Universal Velocity Distribution, Friction Factor for Turbulent Flow in Hydraulically Smooth pipe

Lecture 36 - Friction Factor for Turbulent Flow in a Hydraulically Rough pipe

Lecture 37 - Emperical Power Law Velocity Distribution for Turbulent Flow

Lecture 38 - Internal Flows : Concept of Average Velocity and Bulk Mean Temperature

Lecture 39 - Thermal Entrance Length : Boundary layer growth for Pr > 1, Pr ~ 1 and Pr C 1 cases, Concept of Thermally fully developed

Lecture 40 - Analysis of Internal Flows for Constant Heat Flux Boundary Condition

Lecture 41 - Internal Flow : Constant Wall Temperature case

Lecture 42 - Velocity Distribution for Laminar flow in Circular pipe

Lecture 43 - Nusselt number for Laminar Flow in a Circular pipe with Constant Wall Heat Flux, Nusselt number for other cases

Lecture 44 - Natural Convection : Introduction, Scaling Analysis, Derivation of Governing equation

Lecture 45 - Natural Convection : Scale Analysis for Pr > 1

Lecture 46 - Natural Convection : Scale Analysis for Pr C 1

Lecture 47 - Dimensional Similarity and criterion for Forced and Natural Convection correlations for various cases

Lecture 48 - Vertical Channel flow with Plates maintained at Constant Wall Temperature

Lecture 49 - Optimal Cooling of a stack of Vertical Heat generating plates

Lecture 50 - Effect of Viscous Dissipation on Nusselt number - 1

Lecture 51 - Effect of Viscous Dissipation on Nusselt number - 2

Lecture 52 - Boiling Heat transfer : Introduction and Classification

Lecture 53 - Pool Boiling curve - 1

Lecture 54 - Pool Boiling curve - 2

Lecture 55 - Pool Boiling curve - 3 : Introduction to Critical Heat Flux

Lecture 56 - Critical Heat flux (Continuation), Film Boiling, Basic analysis of Flow Boiling

Lecture 57 - Condensation - 1

Lecture 58 - Condensation - 2

Lecture 59 - Introduction to Electronics cooling

Lecture 60 - Pool Boiling curve - 3 : Introduction to Electronics cooling - Resistance network

Lecture 61 - Problem Solving - Part 1

Lecture 62 - Problem Solving - Part 2

Lecture 63 - Problem Solving - Part 3

Lecture 64 - Unheated starting length (Integral method) and Duhamel's theorem

Lecture 65 - Arbitrarily varying Boundary temperature - Duhamel's theorem

Lecture 66 - Heat transfer coefficient - IcePAK Analysis

Lecture 67 - Heat Sinks - Part 1

Lecture 68 - Heat exchanger theory - An approach to modeling heat sinks

Lecture 69 - Forced convection cooling

Lecture 70 - Honeycomb and Foam heat sink modeling - Approximation

Lecture 71 - Foam heat sink modeling - Approximation (Continuation)