Introduction to Computational Fluid Dynamics and Heat Transfer

Understanding how fluids behave and how heat transfers through complex systems is essential for modern engineering, yet the underlying mathematics can feel overwhelming. This course breaks down these complex physical phenomena into clear, digestible concepts that you can model numerically. You will transition from understanding basic physical conservation laws to confidently setting up your own numerical simulations. What you'll learn: Understand the governing Navier-Stokes and energy equations; Apply finite difference and finite volume methods to discretize partial differential equations; Solve steady and unsteady heat conduction problems numerically; Configure boundary conditions correctly for accurate physical simulations; Analyze fluid flow patterns using pressure-velocity coupling algorithms; Evaluate simulation stability, convergence, and grid independence. The course begins with foundational fluid mechanics and heat transfer terminology, ensuring you have a solid grasp of the governing equations before moving step-by-step into numerical discretization, grid generation, and solver algorithms. This course is designed for engineering students, researchers, and practicing professionals who are new to numerical simulation and want to build a strong theoretical and practical foundation in computational modeling. Start your journey into the world of computational fluid dynamics today.