Price: $109

Advance your porous media CFD skills with this 10-project ANSYS Fluent training package — covering combustion in porous media, flow and filtration through porous structures, porous heat transfer and electronics cooling, and particle-fluid and biological porous applications.

Price: $79

Build intermediate-level expertise in porous media CFD with this 10-project ANSYS Fluent training package — covering porous flow fundamentals, membrane-based water treatment, thermal and drying applications, and specialized porous media applications in electrical and medical imaging systems.

Price: $29

Porous Media: Beginner CFD Training Package is a ten-project introduction to porous-media flow simulation in ANSYS Fluent. Starting from the porous-jump and porous-zone models and building through porous heat transfer, infiltration, drying, acoustics, and multiphase flow up to large applied systems, it gives newcomers a hands-on, application-driven foundation in the CFD techniques behind modern porous-media engineering — one real engineering case at a time.

Price: $24

Data center cooling simulation and thermal analysis in ANSYS Fluent, focused on rack inlet conditions. Evaluating the impact of cooling-unit supply pressure on cold-air penetration into racks and overall cooling effectiveness. Delivering practical layout and airflow-management insights to improve cooling performance and reduce energy waste.

Price: $240

ANSYS CFD study of virus transport and comfort in a 10×8 m classroom comparing AC and chilled beam ventilation. Room with desks, eight occupants, AC louvers vs. chilled-beam inlets; unstructured mesh refined near jets, walls, and bodies. Steady pressure-based RANS (realizable k-ε), energy on with buoyancy; virus tracked via DPM; appropriate velocity-inlet and pressure-outlet BCs. AC removes particles faster but shows uneven temperatures, while chilled beams improve thermal uniformity with broader mixing that disperses particles more widely.

Price: $20

This study simulates the drying seed process in a semi-cylindrical porous domain to analyze airflow, heat, and moisture transfer. The drying seed model uses a half-domain with about 4.5 million tetrahedral cells, including fluid and porous seed zones. A transient, pressure-based solver with the RNG k-ε model and species transport simulates the drying seed. The drying seed simulation shows uniform temperature and decreasing moisture, indicating efficient drying performance.

Price: $360

The geometry represents the meat sample and surrounding air domain, discretized with a structured mesh of 58,800 elements to accurately capture heat and mass transfer gradients. The meat drying process was simulated using CFD to analyze heat and mass transfer during drying. The VOF model was applied to capture multiphase interactions between liquid water and vapor. The meat was modeled as a porous medium to represent internal moisture transport. Infrared heating and air convection were used as drying mechanisms under two operating cases. Results showed that higher heat flux and temperature enhanced drying efficiency and reduced moisture content.

Price: $140

This project simulates blood flow in a porous artery wall using CFD in ANSYS. The wall is modeled as a high-viscosity fluid to mimic porosity, with no actual flow through it. Geometry was simplified, meshed, and solved in Fluent under steady laminar conditions. The study includes validation, mesh independence, and analysis of velocity profiles.

Price: $96

This product presents Microchannel Heat Sink Optimization using ANSYS software. We model with the Design Modeler software; we mesh with ANSYS Meshing software. We use the Design Exploration tool to perform the optimization process. We use the Latin Hypercube Sampling Design in the Design of Experiment (DOE). We use the Genetic Aggregation and the Response Surface Methodology (RSM).