
Explore CFD with OpenFOAM and Python to automate simulations, extract results, and train AI surrogate models that connect physics-based Navier–Stokes and energy equations to fast data-driven predictions.
Learn the foundations of CFD with OpenFOAM, including governing equations, buoyancy, and a text-based workflow from mesh and boundary conditions to Paraview visualization, enabling later automation and AI.
Explore AI surrogates for CFD, training random forests and neural networks on CFD data to predict results instantly, visualize accuracy, and accelerate design optimization while acknowledging limits.
Learn to make fast, validated predictions from trained AI surrogates for CFD data. Compare AI results with CFD and visualize differences using plots and 2D fields for engineering decisions.
Reflect on the complete CFD workflow from OpenFOAM simulations to AI surrogates and visualization. Leverage Python automation, datasets, and rapid design exploration for optimization and real-time control with digital twins.
Unlock the power of CFD with OpenFOAM and Python in this hands-on course designed to take you from simulation basics to AI-driven analysis. Whether you are a student, engineer, or enthusiast, this course will guide you step by step through the complete CFD workflow, enabling you to confidently set up simulations, analyze results, and even integrate AI for smarter predictions.
What you’ll learn in this course:
Fundamentals of CFD and fluid mechanics concepts applied in simulations.
How to set up and run simulations in OpenFOAM, including meshing and solver selection.
Post-processing and visualization of simulation results using Python.
Automating CFD workflows with Python for efficiency and scalability.
Integrating AI/ML models with CFD data for predictive insights and advanced analysis.
Best practices in CFD case setup, result validation, and troubleshooting common issues.
How to bridge the gap between traditional CFD simulations and modern AI-powered approaches.
This course is beginner-friendly and requires only basic knowledge of fluid mechanics and general computer skills. By the end of the course, you will have the skills to perform real-world CFD simulations, visualize and interpret results effectively, and harness Python and AI to enhance your engineering analyses. It’s perfect for anyone looking to advance their career in engineering, research, or technology-driven industries.