ANSYS Meshing Online Courses

Price: Free

Dive into 39 free, real-world CFD simulation projects covering heat transfer, aerodynamics, and multiphase flows using the complete Ansys pipeline—from DesignModeler and SpaceClaim geometry to Fluent setup and CFD-Post analysis. If you need a structured foundation before tackling these complex exercises, master the core workflow with our guided ANSYS Fluent beginner project training and buy for $9 to launch your applied CFD journey today!

Price: Free

In this course, you will thoroughly learn how to mesh a 2D/3D geometry model to be used for your CFD/structural simulation stage. Namely, different types of mesh/grids including, unstructured, hybrid, structured, and multiple ways how to carry each out are illustrated. You will be first familiarized with different types of mesh and the geometries over which these specific mesh types are applied. Then building upon that knowledge, we will teach you the tricks and tips on how to create the mentioned mesh or grids. This Course is presented so that it is as practical as possible so that the graduates after the end of the Course can work well with this software to generate high-quality mesh for the geometries required for CFD works.

Price: $8

This project simulates a Miner Room Ventilation in ANSYS Fluent software. The geometry of the problem is designed in Spaceclaim then Meshed in ANSYS Meshing software with 1,530,586 cells. The turbulence of the air flow is simulated with RNG k-e model. The energy source in cell zone conditions is activated for the fans.

Price: $210

Arc welding process simulated using ANSYS Fluent User-Defined Scalar (UDS) calculates electrical potential/properties User-Defined Function (UDF) computes electric field heat release, added as an energy equation source term Geometry built in SpaceClaim Mesh of 335,560 elements generated in ANSYS Meshing

Price: $40

This tutorial simulates cavitation on a boat propeller using ANSYS Fluent. It applies the Mixture multiphase model with the Schnerr-Sauer cavitation model and mesh motion for the rotating propeller, and examines how pressure distribution and rotational speed drive vapor formation on the blades.