CFD Intermediate Courses

Price: $60

this report presents a FSI analysis of a HAWT using CFD. The geometry was created using ANSYS Design Modeler, and meshing was performed with ANSYS Meshing, resulting in a high-fidelity model with 3,465,821 cells. The simulation leverages (MRF) approach for rotating domains and dynamic mesh methods to capture the complex fluid-structure interactions. A two-way FSI approach was employed to capture the mutual interaction between the fluid flow and the structural deformation of the turbine blades.

Price: Free

In this course, you will thoroughly learn how to design a 3D model. In addition, how to draw two-dimensional sketches is fully explained. Geometry drawing tools are fully introduced in Design Modeler software. At the end of the course, you will be able to model a complex three-dimensional geometry with the tools in this software. 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 produce the geometries required for CFD works.

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: Free

In this course, you will learn how to use different tools for post-processing, including making contours, vectors, streamlines, plots, animations, etc. It should be noted that all the related settings and options will be discussed in detail; however, it has been tried to be as practical as possible so that the graduates would be able to work efficiently with the software after the end of the course.

Price: $69

Build intermediate-level expertise in HVAC engineering CFD with this 10-project ANSYS Fluent training package — covering mechanical air conditioning systems, solar-driven heating and ventilation, passive traditional cooling methods, and specialized industrial ventilation applications.

Price: $49

This package introduces architectural and building-aerodynamics CFD applications through ten progressively structured ANSYS Fluent projects, starting with atrium airflow and building envelope design, moving through traditional passive ventilation structures, and closing with urban-scale wind and pollution studies. It's built to give beginners a practical foundation in building-scale and urban CFD modeling.

Price: $39

Free Surface Flow: Beginner CFD Training Package is a ten-project introduction to free-surface and multiphase flow simulation in ANSYS Fluent. Starting from basic open-channel flow and building through channel bends and outlets, spillways of increasing complexity, moving dam structures, and three-phase weir flow, it gives newcomers a hands-on, application-driven foundation in the VOF and Eulerian multiphase techniques behind modern hydraulic and civil engineering — one real engineering case at a time.

Price: $59

Build intermediate-level expertise in heat transfer CFD with this 10-project ANSYS Fluent training package — covering building-scale thermal systems, heat exchanger design across three geometries, and specialized topics like porous media, solar collection, and film cooling.

Price: $28

In this project, the evaporation of soil moisture in a fluidized bed was simulated using ANSYS Fluent. The geometry was created in SpaceClaim, and a mesh consisting of 22,000 elements was generated using ANSYS Meshing. The Eulerian model was chosen to simulate multiphase flow, and the species transport model was used to define the mixture in each phase. Evaporation was modeled using the evaporation-condensation method based on the Lee