Syllabus For 3 Month Duration
CFD Basic Theory
- Overview of CFD: Definition, historical development, and applications.
- CFD is important in various engineering fields, such as aerospace, automotive, energy, etc.
- Introduction to the governing equations of fluid dynamics: continuity, momentum, and energy equations.
- Properties of fluids: density, viscosity, and pressure.
- Newtonian vs. non-Newtonian fluids.
- Fluid flow classification: laminar vs. turbulent flow regimes.
- Introduction to numerical discretization: finite difference, finite volume, and finite element methods.
- Spatial and temporal discretization of the governing equations.
- Overview of numerical stability, accuracy, and convergence criteria.
- Derivation and explanation of the Navier-Stokes equations.
- Simplifications and assumptions for different flow scenarios.
- Boundary conditions: types, implementation, and significance in CFD simulations.
- Fundamentals of turbulence and its modeling in CFD.
- Reynolds-averaged Navier-Stokes (RANS) equations and turbulence models.
- Selection criteria for turbulence models: k-ε, k-ω, SST, etc.
- Basics of heat transfer mechanisms: conduction, convection, and radiation.
- Modeling heat transfer in CFD simulations.
- Introduction to combustion modeling: reactions, species transport, and combustion models.
- Introduction to multiphase flow phenomena: gas-liquid, solid-liquid, and gas-solid flows.
- Eulerian vs. Lagrangian approaches for multiphase flow simulations.
- Modeling techniques for multiphase flows in CFD: Volume of Fluid (VOF), Discrete Phase Model (DPM), etc.
- High-fidelity simulations: Direct Numerical Simulation (DNS) and Large Eddy Simulation (LES).
- Overview of compressible flow simulations and shock-capturing methods.
- Introduction to advanced turbulence modeling approaches: Detached Eddy Simulation (DES), Scale-Adaptive Simulation (SAS), etc.
- Real-world applications of CFD in engineering: aerodynamics, heat transfer, combustion, etc.
- Case studies highlighting the use of CFD in various industries.
- Discussion on current trends and future directions in CFD research and development.
Ansys Software Training
- Familiarization with the ANSYS Fluent interface, project setup, and workflow.
- Basic operations: creating projects, importing geometries, and defining boundary conditions.
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- Defining boundary conditions for CFD simulations.
- Configuring solver settings and initialization for accurate simulations.
- Understanding turbulence and its modeling in ANSYS Fluent.
- Overview of turbulence models available in ANSYS Fluent: k-ε, k-ω, SST, etc.
- Basics of heat transfer mechanisms and their modeling in ANSYS Fluent.
- Introduction to combustion modeling: reactions, species transport, and combustion models.
- Introduction to multiphase flow phenomena and their simulation challenges.
- Modeling multiphase flows in ANSYS Fluent: Eulerian vs. Lagrangian approaches.
- Advanced features in ANSYS Fluent: transient simulations, species transport, etc.
- Introduction to dynamic mesh and moving boundary problems.
- Introduction to post-processing tools in ANSYS Fluent.
- Visualizing simulation results: contours, vectors, streamlines, etc.
- Basics of optimization techniques in ANSYS Fluent.
- Sensitivity analysis for assessing the impact of input parameters on simulation results.
- Principles of validation and verification in CFD simulations using ANSYS Fluent.
- Benchmarking ANSYS Fluent results against experimental data.
- Overview of advanced topics in ANSYS Fluent: high-fidelity simulations, turbulence modeling advancements, etc.
- Discussion on emerging trends and future directions in ANSYS Fluent research and development.
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