Price: $129

Advance your biomedical and healthcare CFD skills with this 10-project ANSYS Fluent training package — covering cardiovascular hemodynamics and devices, treatment and diagnostic imaging, airborne infection control, and pharmaceutical bioprocessing.

Price: $79

Build intermediate-level expertise in biomedical and healthcare CFD with this 10-project ANSYS Fluent training package — covering clinical facility ventilation, airborne virus transmission risk across hospital and public settings, and cardiovascular hemodynamics from basic pulsatile blood flow to advanced FSI-coupled vessel and bypass graft simulations.

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: $120

This project investigates the crystallization of Loratadine in a dual-inlet nozzle using the Population Balance Model (PBM) in ANSYS Fluent. The study focuses on the effects of mixing and flow dynamics on nucleation and crystal growth. A tetrahedral mesh with 506,677 cells was used for accurate flow and particle tracking. A User-Defined Function (UDF) defined the kinetics of crystal formation based on local conditions. The results show realistic particle size distribution and effective prediction of crystallization behavior.

Price: $36

This project presents a CFD study based on the article “Analysis of Computational Fluid Dynamics and Particle Image Velocimetry Models of Distal-End Side-to-Side and End-to-Side Anastomoses for Coronary Artery Bypass Grafting in a Pulsatile Flow.” The objective is to reproduce and validate the hemodynamic behavior of distal-end side-to-side (deSTS) and end-to-side (ETS) anastomoses. All simulations were carried out in ANSYS Fluent using steady, laminar, and incompressible flow assumptions. The results include comparisons of velocity profiles and wall shear stress (WSS) to ensure accuracy with the reference study.

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: $270

This artery flow project involves the simulation of blood flow in a compliant artery using CFD and FSI techniques in ANSYS. The primary objectives are to validate the simulation against a published study, analyze mesh independence, and investigate the effects of wall compliance and porosity on hemodynamic behavior. The artery geometry is simplified and reconstructed for numerical accuracy, with meshing performed in ANSYS Meshing and flow solved using Fluent. Wall deformation is modeled using the FSI module, while porosity effects are simulated by assigning high-viscosity fluid properties to the vessel wall. Simulations are performed under unsteady, incompressible flow conditions with non-Newtonian blood properties. Key results include time-dependent deformation, wall shear stress, and velocity distributions, with validation confirming a shear stress error below 1% in mesh studies.

Price: $240

This project simulates and analyzes a dust-shaped geometry exposed to wind using Computational Fluid Dynamics (CFD). The study employs a pressure-based solver with a focus on understanding drag forces resulting from varying inlet velocities and rotational dynamics. The study uses advanced optimization techniques, including Design of Experiment (DOE) and Central Composite Design (CCD) methods, to explore 15 design scenarios. The findings highlight the inlet velocity magnitude as the most influential parameter, aiding in the optimization of aerodynamic efficiency and contributing to enhanced dust simulation accuracy.

Price: $120

In this project, the quantitative distribution of human exhaled particles in a ventilated room is simulated using ANSYS Fluent software, based on the methodology from Zhijian Liu’s study. The 3-D geometry and mesh were created with user-provided files and consist of 547,820 elements. The simulation accounts for steady-state flow conditions and transitions to solve energy and DPM equations transiently. Airflow dynamics and heat transfer are analyzed using the ideal gas equation to address density variations due to temperature changes. The fan’s operation is modeled through a polynomial pressure jump function.