The course
From your first mesh to your first fully solved CFD problem, build the skills to model, simulate and understand real engineering flows.
In short
CFD is more than learning where to click inside ANSYS Fluent.
To solve an engineering problem correctly, you need to understand the complete simulation workflow: preparing the geometry, generating a reliable mesh, setting up the physics, achieving convergence, and interpreting the final results.
This course takes you through every stage of that process, combining fundamental concepts with hands-on engineering projects.
The workflow
Recorded, in order, one stage after the other. Every lecture unlocks with either option below. Tap a stage to close or open its lectures.
Learn to sketch, dimension, and build geometry using SpaceClaim’s drawing and editing tools. Import existing models, modify shapes, and work with assemblies. Apply these skills to prepare the geometries used throughout the course’s 16 engineering projects.
Build the geometry. Prepare the model. Start the simulation correctly.
Understand how meshing works and how mesh quality influences simulation accuracy. Explore mesh methods, global and local sizing, refinement, and inflation layers, including boundary-layer resolution and y+. Apply these techniques to create suitable meshes for the course projects.
Understand the mesh, don't just generate it.
Understand the solver fundamentals and learn to define materials, physical models, and boundary conditions. Select numerical methods, adjust solution controls, and monitor convergence. Apply these skills to flow, heat transfer, turbulence, multiphase systems, combustion, and moving-mesh simulations.
Set up the physics. Solve the problem. Trust the results.
Visualize simulation results using contours, vectors, streamlines, and animations. Create custom surfaces, expressions, and graphs to extract numerical data and compare different cases. Interpret fluid-flow and thermal behavior to turn your results into meaningful engineering conclusions.
Turn simulation data into engineering decisions.
16projects
Projects
Theory gives you the foundation. Practice gives you the ability to use it. Throughout the course you apply the complete CFD workflow to 16 realistic engineering case studies, taking each one from geometry preparation and meshing through ANSYS Fluent setup, solution, convergence and professional post-processing.
Project 01 Filling tank
Project 02 Rocket heat
Project 03 Jet nozzle
Project 04 Boiler
Project 05 Combustion chamber
Project 06 Airplane wing
Project 07 F1 car
Project 08 Heat exchanger
Project 09 Fire exhaust fan
Project 10 Radiation and solar effect
Project 11 Flettner ship rotating cylinder
Project 12 Vertical axis wind turbines
Project 13 Mixing elbow
Project 14 Centrifugal compressor
Project 15 Fill water with opening gate
Project 16 Moving bullet
01 of 16
Tap or click a slide to open it full size.
Transient VOF multiphase flow
Model free surface flow, liquid filling, entrainment and spreading using the Volume of Fluid approach.
Compressible flow & shock waves
Use a density based solver to analyse supersonic flow and oblique shock wave behaviour in an axisymmetric configuration.
Choked flow & shock location
Investigate compressible nozzle flow and study how back pressure influences shock location.
Evaporation & condensation
Model transient multiphase flow involving boiling and phase change.
Species transport & combustion
Set up species transport, volumetric reactions and eddy dissipation chemistry.
External aerodynamics
Analyse aerodynamic performance at different flow conditions and obtain lift and drag coefficients.
High performance external aerodynamics
Build a large external flow CFD model and investigate aerodynamic drag and downforce.
Conjugate heat transfer
Analyse coupled fluid and solid thermal behaviour using conjugate heat transfer modelling.
Species transport & fan modelling
Model exhaust flow using species transport and a custom fan momentum source.
Radiation heat transfer
Use the discrete ordinates radiation model and the solar calculator to study radiation and solar loading.
Magnus effect
Analyse flow around a rotating cylinder using moving wall rotation and a structured mesh.
Rotating flow & multiple zones
Study rotating aerodynamic behaviour using multiple rotating zones and mesh motion techniques.
Thermal mixing & rotating flow
Analyse thermal mixing and rotating flow effects with a coupled wall thermal model and a parametric study.
Rotating machinery
Model rotating impeller flow and analyse axial to radial flow turning.
Dynamic mesh & UDF
Simulate moving geometry using mesh smoothing, remeshing and a compiled user defined function.
Fluid–structure interaction · capstone
Complete a two way fluid–structure interaction simulation using ANSYS Fluent and System Coupling.
Physics
The 16 projects cover a deliberately broad range of engineering physics rather than repeating simple textbook examples.
Outcomes
After completing the course you will have built a complete foundation in practical CFD modelling and ANSYS simulation, with hands-on experience across 16 engineering projects.
Choose your option
Both options include the complete course. The second option adds extended live support with Dr. Mohammad.
Option one
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Option two
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