Module #1 Introduction to Turbulence Overview of turbulence, its importance, and challenges in fluid flow
Module #2 Characteristics of Turbulent Flows Discussion of turbulent flow characteristics, Reynolds number, and laminar-turbulent transition
Module #3 Governing Equations for Turbulent Flows Navier-Stokes equations for turbulence, Reynolds decomposition, and averaging
Module #4 Turbulence Scales and Turbulent Kinetic Energy Introduction to turbulence scales, turbulent kinetic energy, and dissipation rate
Module #5 Closure Problem in Turbulence Modeling Discussion of the closure problem, its significance, and approaches to solve it
Module #6 Eddy Viscosity Models Introduction to eddy viscosity models, including Boussinesq hypothesis and mixing length theory
Module #7 One-Equation Turbulence Models Introduction to one-equation models, including k-model and its variants
Module #8 Two-Equation Turbulence Models Introduction to two-equation models, including k-ε and k-ω models
Module #9 Reynolds-Stress Models (RSMs) Introduction to RSMs, including their formulation and application
Module #10 Large Eddy Simulation (LES) Fundamentals Introduction to LES, filter functions, and modeling of subgrid scales
Module #11 LES Modeling Techniques Discussion of LES modeling techniques, including Smagorinsky model and dynamic models
Module #12 Hybrid RANS-LES Models Introduction to hybrid RANS-LES models, including their formulation and application
Module #13 Turbulence Modeling for Wall-Bounded Flows Discussion of turbulence modeling for wall-bounded flows, including wall functions and near-wall models
Module #14 Turbulence Modeling for Free Shear Flows Discussion of turbulence modeling for free shear flows, including jets, plumes, and wakes
Module #15 Turbulence Modeling for Complex Flows Discussion of turbulence modeling for complex flows, including swirling flows, rotational flows, and multiphase flows
Module #16 Turbulence Model Validation and Verification Discussion of turbulence model validation and verification, including experimental and numerical methods
Module #17 Turbulence Modeling for Industrial Applications Discussion of turbulence modeling for industrial applications, including aerospace, chemical, and civil engineering
Module #18 Advanced Topics in Turbulence Modeling Discussion of advanced topics in turbulence modeling, including machine learning, data-driven models, and multi-scale methods
Module #19 Turbulence Modeling in Computational Fluid Dynamics (CFD) Discussion of turbulence modeling in CFD, including commercial software and open-source codes
Module #20 Best Practices for Turbulence Modeling Discussion of best practices for turbulence modeling, including model selection, grid resolution, and boundary conditions
Module #21 Turbulence Modeling for Multiphase Flows Discussion of turbulence modeling for multiphase flows, including bubbly flows, droplet-based flows, and granular flows
Module #22 Turbulence Modeling for Non-Newtonian Flows Discussion of turbulence modeling for non-Newtonian flows, including power-law fluids, Bingham plastics, and viscoelastic fluids
Module #23 Turbulence Modeling for Compressible Flows Discussion of turbulence modeling for compressible flows, including supersonic and hypersonic flows
Module #24 Turbulence Modeling for Reactive Flows Discussion of turbulence modeling for reactive flows, including combustion and chemical reactions
Module #25 Course Wrap-Up & Conclusion Planning next steps in Turbulence Modeling in Fluid Flow career
