NOC:Microhydrodynamics

Lecture 1 - Introduction to Microhydrodynamics

Lecture 2 - Introduction to Tensors - Part 1

Lecture 3 - Introduction to Tensors - Part 2

Lecture 4 - Stokes Flow

Lecture 5 - Stokes Flow (Continued...)

Lecture 6 - Solution of Stokes flow equations - 1

Lecture 7 - Solution of Stokes flow equations - 2

Lecture 8 - Integral theorems in Stokes flow - 1 (Minimum Energy Dissipation theorem)

Lecture 9 - Integral theorems in Stokes flow - 2 Lorentz reciprocal theorem

Lecture 10 - Velocity field due to a rotating sphere in Stokes flow - Part 1

Lecture 11 - Velocity field due to a rotating sphere in Stokes flow - Part 2

Lecture 12 - Solution of a translating sphere in Stokes flow - Part 1

Lecture 13 - Solution of a translating sphere in Stokes flow - Part 2

Lecture 14 - Solution of a translating sphere in Stokes flow - Part 3

Lecture 15 - Faxen's laws - I

Lecture 16 - Faxen's laws - II

Lecture 17 - Stokes flow of a single particle in a simple shear flow - I

Lecture 18 - Stokes flow of a single particle in a simple shear flow - II

Lecture 19 - Stokes flow of a single particle in a simple shear flow - III

Lecture 20 - Einstein's effective viscosity for a dilute suspension - I

Lecture 21 - Einstein's effective viscosity for a dilute suspension - II

Lecture 22 - Boundary integral method - I

Lecture 23 - Boundary integral method - II

Lecture 24 - Boundary integral method - III

Lecture 25 - Stokes paradox

Lecture 26 - Slender body theory - I

Lecture 27 - Slender body theory - II

Lecture 28 - Slender body theory - III

Lecture 29 - Slender body theory - IV

Lecture 30 - Slender body theory - V

Lecture 31 - Slender body theory - VI

Lecture 32 - Resistance and Mobility Matrices - I

Lecture 33 - Resistance and Mobility Matrices - II

Lecture 34 - Effect of inertia in low Reynolds number flows - I

Lecture 35 - Effect of inertia in low Reynolds number flows - II

Lecture 36 - Unsteady Stokes equation - I

Lecture 37 - Unsteady Stokes equation - II

Lecture 38 - Maxey-Riley-Gattignol equation - I

Lecture 39 - Maxey-Riley-Gattignol equation - II

Lecture 40 - Effect of finite Stokes number

Lecture 41 - Qulatative effects of fluid inertia

Lecture 42 - Inertial migration of spheres in a channel flow

Lecture 43 - Langevin equation - I

Lecture 44 - Langevin equation - II

Lecture 45 - Langevin equation - III

Lecture 46 - Langevin equation - IV

Lecture 47 - Hydrodynamic interactions - I: Method of reflections

Lecture 48 - Hydrodynamic interactions - II: Method of reflections

Lecture 49 - Hydrodynamic interactions - III: Lubrication theory

Lecture 50 - Hydrodynamic interactions - IV: Lubrication theory

Lecture 51 - Modelling dense suspensions - I

Lecture 52 - Modelling dense suspensions - II