
Install OpenFOAM on Windows via WSL, choose between Openfoam.org and Openfoam.com versions, then set up bashrc, run foamrun, install Paraview, and test with pitzDailySteady tutorials in a step-by-step workflow.
OpenFOAM beginners run their first simulation using the incompressible simpleFoam case and standard solvers. Copy the tutorial folder, create a project folder, generate a mesh, and view results in Paraview.
Explore OpenFOAM standard solvers and tutorial cases across fluid flow, heat transfer, combustion, electromagnetics, and solid mechanics. Learn how to select and use the right solver for CFD applications.
Explore the OpenFOAM case folder structure consisting of 0, constant and system, modify boundary conditions and mesh in a cavity flow example, run Icofom, and visualize results in Paraview.
Explore external flow with free stream boundary conditions, moving walls, and angle of attack, using identical inlet/outlet velocity and pressure, and internal field inputs.
Explore turbulence modeling within computational fluid dynamics, from direct numerical simulation and large eddy simulations to Reynolds-averaged Navier-Stokes, highlighting near-wall challenges, mesh needs, and tradeoffs.
Explore multiphase flow in OpenFOAM using the volume of fluid model and alpha water to simulate air–water interfaces in a dam-break scenario. Set fields, gravity, and time-step controls for stability.
Computational Fluid Dynamics (CFD) is an advanced tools to solve complex fluid dynamic and heat transfer equations using numerical method. OpenFOAM is an open-source and free to use CFD solver with the largest community in the world. Despite its powerful capability, its major drawback is the step learning process. By making this course, I hope I can reduce the effort of new learners to start learning using this amazing and powerful tool.
In this course, you will get hands-on experience using OpenFOAM following the core theories related to the setting used in the simulation simply and intuitively, so you can use it for your applications.
You don't have to have basic LINUX or other programming experience before this course; we will explain some basic useful LINUX commands only related to the operation of OpenFOAM, and some efficient programming tricks will be also explained during the course.
This course will be separated into five parts (1) introduction, (2) core knowledge, (3) useful cases, (4) some advanced theories, and (5) More "realistic" applications.
with the focus on the basic "tutorial" case folder, meshing using blockMesh and snappyHexMesh, geometry editing using Blender, post-processing, turbulent modeling, scheme and algorithm theory, and some "real-world" workflow.