Lecture 1 - Introduction to turbulence
Lecture 2 - Statistical Analysis: An approach of modelling turbulence - I
Lecture 3 - Statistical Analysis: An approach of modelling turbulence - II
Lecture 4 - Statistical Analysis and Cartesian tensors - I
Lecture 5 - Statistical Analysis and Cartesian tensors - II
Lecture 6 - Navier Stokes: the governing equations - 1
Lecture 7 - Navier Stokes: the governing equations - 2
Lecture 8 - RANS equations I - 1
Lecture 9 - RANS equations I - 2
Lecture 10 - RANS equations II - 1
Lecture 11 - RANS equations II - 2
Lecture 12 - Reynold's stress: governing equations - I
Lecture 13 - Reynold's stress: governing equations - II
Lecture 14 - Statistical Stationarity and Homogenity in Plane Couttee Flows - I
Lecture 15 - Statistical Stationarity and Homogenity in Plane Couttee Flows - II
Lecture 16 - Pressure-strain-rate and redistribution of turbulence in flows - I
Lecture 17 - Pressure-strain-rate and redistribution of turbulence in flows - II
Lecture 18 - Turbulence Kinetic Energy and it's dissipation rate - I
Lecture 19 - Turbulence Kinetic Energy and it's dissipation rate - II
Lecture 20 - Production rate of TKE and Mean TKE - I
Lecture 21 - Production rate of TKE and Mean TKE - II
Lecture 22 - Turbulent Boundary Layer: Order of Magnitude analysis - I
Lecture 23 - Turbulent Boundary Layer: Order of Magnitude analysis - II
Lecture 24 - Inner and Outer TBL: Order of magnitude analysis - I
Lecture 25 - Inner and Outer TBL: Order of magnitude analysis - II
Lecture 26 - Inner layer equation, constant stress layer, and inner velocity scaling - I
Lecture 27 - Inner layer equation, constant stress layer, and inner velocity scaling - II
Lecture 28 - Reynold's Averaged Navier-Stokes (RANS) models - I
Lecture 29 - Reynold's Averaged Navier-Stokes (RANS) models - II
Lecture 30 - Different approaches to solve turbulence closure problem - I
Lecture 31 - Different approaches to solve turbulence closure problem - II
Lecture 32 - Modelling of turbulent kinetic energy (k): production, destruction, and dissipation rate - I
Lecture 33 - Modelling of turbulent kinetic energy (k): production, destruction, and dissipation rate - II
Lecture 34 - Standard k-? model and the model constants - I
Lecture 35 - Standard k-? model and the model constants - II
Lecture 36 - Standard k-? model, RNG k-? model, and Prandlt’s one equation model - I
Lecture 37 - Standard k-? model, RNG k-? model, and Prandlt’s one equation model - II
Lecture 38 - New model k- ? and model constants - I
Lecture 39 - New model k- ? and model constants - II
Lecture 40 - Introduciton to wall-functions - I
Lecture 41 - Introduciton to wall-functions - II
Lecture 42 - Introduction to wall-resolved simulations - I
Lecture 43 - Introduction to wall-resolved simulations - II
Lecture 44 - Damping functions for LRN - I
Lecture 45 - Damping functions for LRN - II
Lecture 46 - Boundary and Initial conditions for RANS simulations - I
Lecture 47 - Boundary and Initial conditions for RANS simulations - II
Lecture 48 - Realizability constraints in eddy-viscoscity models - I
Lecture 49 - Realizability constraints in eddy-viscoscity models - II
Lecture 50 - Correctors for eddy-viscoscity models - I
Lecture 51 - Correctors for eddy-viscoscity models - II
Lecture 52 - Reynold’s Stress Modelling (RSM): governing equations - I
Lecture 53 - Reynold’s Stress Modelling (RSM): governing equations - II
Lecture 54 - Dissipation rate and Pressure-Strain rate modelling for RSM - I
Lecture 55 - Dissipation rate and Pressure-Strain rate modelling for RSM - II
Lecture 56 - Pressure-Strain rate modelling for RSM - I
Lecture 57 - Pressure-Strain rate modelling for RSM - II
Lecture 58 - Pressure-Strain rate modelling and wall corrections for RSM - I
Lecture 59 - Pressure-Strain rate modelling and wall corrections for RSM - II
Lecture 60 - Introduction to Eddy Resolved Models - I
Lecture 61 - Introduction to Eddy Resolved Models - II
Lecture 62 - Introduction to Direct Numerical Simulations (DNS) - I
Lecture 63 - Introduction to Direct Numerical Simulations (DNS) - II
Lecture 64 - Introduction to Large Eddy Simulations (LES) Filtering operation and SGS stresses - I
Lecture 65 - Introduction to Large Eddy Simulations (LES) Filtering operation and SGS stresses - II
Lecture 66 - Large Eddy Simulations: Filtered Navier-Stokes Equations - I
Lecture 67 - Large Eddy Simulations: Filtered Navier-Stokes Equations - II
Lecture 68 - Large Eddy Simulations: Filters and its types - I
Lecture 69 - Large Eddy Simulations: Filters and its types - II
Lecture 70 - Large Eddy Simulations: Smagorinsky model - I
Lecture 71 - Large Eddy Simulations: Smagorinsky model - II
Lecture 72 - LES: Dynamic Smagorinsky model and Scale similarity models - I
Lecture 73 - LES: Dynamic Smagorinsky model and Scale similarity models - II
Lecture 74 - Numerics in LES and Hybrid models
