SIMATER ACADEMY

1. SU2 (Stanford University Unstructured) Use : CFD, aerodynamic shape optimization, adjoint methods. Language : C++ Strengths : Advanced optimization & adjoint solvers. Excellent for aerospace and compressible flows. Python interface for automation. 2. Code_Saturne   Use: General-purpose CFD (incompressible & compressible flows) Developer: EDF (Electricité de France) Strengths: User-friendly GUI available. Strong thermal and multiphysics coupling. Efficient for industrial simulations (turbines, HVAC). 3. Elmer FEM Use : Multiphysics simulations (fluid, structural, thermal, etc.) Developer : CSC – IT Center for Science (Finland) Strengths : Finite element method-based. Strong multiphysics coupling: thermal-fluid-structure. Good for electromagnetics and biomechanics too. 4. Gerris / Basilisk Use : Adaptive CFD for free-surface and multi-phase flows. Developer : CNRS, France Strengths : Octree/adaptive mesh refinement. Basil...

Introduction to OpenFOAM The Power of Open-Source CFD,  if you’ve ever wondered how engineers simulate airflow over an aircraft wing, the cooling system of a car engine, or how pollutants disperse in the air - chances are, Computational Fluid Dynamics (CFD) is involved. And when it comes to CFD, OpenFOAM is one of the most powerful tools available - and best of all, it’s completely free and open source . What is OpenFOAM? OpenFOAM stands for Open Field Operation and Manipulation . It’s a toolbox designed for solving problems involving fluid flow, heat transfer, chemical reactions, and even solid mechanics. It uses the finite volume method (FVM) to solve partial differential equations that govern fluid dynamics and physics. Why Use OpenFOAM? Open Source & Free : No license fees, fully modifiable source code. Highly Customizable : You can create your own solvers and models in C++. Parallel Computing : Ready for high-performance simulations on clusters. Extensive ...