Structured courses covering turbulence modeling, meshing, CONVERGE CFD, and combustion simulation — taught by active researchers using real-world cases.
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Practical, hands-on training built around real simulation workflows — not just theory.
Governing equations, discretization schemes, boundary conditions, convergence criteria, and turbulence model selection for practical simulations.
Structured vs unstructured meshing, y+ requirements, mesh quality metrics, and best practices for complex geometries including engine cylinders.
Case setup, autonomous meshing, combustion chemistry integration, and post-processing reactive flow simulations in CONVERGE CFD.
k-ε, k-ω SST, LES and DNS — when to use each, calibration strategies, and validation against experimental data.
Lagrangian particle tracking, droplet breakup models, evaporation, and spray-combustion coupling for direct-injection engines.
End-to-end simulation walkthroughs: IC engine in-cylinder flow, gas turbine combustor, and aftertreatment systems with real datasets.
-ρ·u'u' comes from, why it needs closure, and how to pick the right model for your flow.
Whether you're just starting with CFD or looking to specialize in combustion simulation.
Build practical CFD skills alongside your coursework and research.
Go deeper on combustion-specific methods and validation workflows.
Apply CFD to real design problems — engines, turbines, thermal systems.
Transition into simulation roles with a structured, practical curriculum.