Multi-Phase Flow Online Courses

Price: $569

Master Fluid Flow CFX in this comprehensive ANSYS CFX course featuring 10 step-by-step tutorials. Configure advanced CFX turbulence modeling and CFX multiphase flow physics. Execute complete ANSYS CFX CFD simulation workflows from meshing to CFD-Post. Solve real-world challenges featuring propeller, heat exchanger, and combustion projects.

Price: $129

Comprehensive ANSYS Fluent Course: Master computational fluid dynamics (CFD) through 14 hands-on CFD simulation projects, progressing from beginner fundamentals to expert-level ANSYS Workbench workflows. Advanced Multiphysics Training: Gain specialized CFD training in complex physics, including multiphase models, compressible flow, combustion dynamics, and acoustic modeling. Real-World Engineering Applications: Apply ANSYS Fluent to solve critical industry challenges in thermal management, aerospace aerodynamics, and environmental engineering. Career-Ready Simulation Skills: Build a professional portfolio and prepare for Ansys CFD certification with project-based learning designed for students, researchers, and practicing engineers.

Price: $239

Master multi-phase flow simulations with ANSYS Fluent in this comprehensive course. Learn VOF, Eulerian, Mixture, and Wet Steam models through practical examples. From microfluidics to industrial reactors, gain the skills to tackle complex multi-phase scenarios. Suitable for beginners and experienced CFD users alike. Enhance your expertise and unlock new possibilities in fluid dynamics modeling!

Price: $200

The computational fluid dynamics (CFD) analysis of a Francis turbine was conducted using ANSYS Fluent software to investigate its performance characteristics and flow behavior. This study aims to provide detailed insights into the pressure distribution, velocity patterns, and potential cavitation phenomena within the turbine system. The simulation incorporates advanced numerical models and careful consideration of boundary conditions to ensure accurate results.

Price: $20

The project utilized the ANSYS software suite to simulate and analyze the fluid behavior and cavitation characteristics under specific operating conditions. The initial phase of the project involved geometry creation using ANSYS Design Modeler, followed by mesh generation in ANSYS Meshing. The multiphase modeling approach utilized the Volume of Fluid (VOF) method, coupled with cavitation mechanisms to accurately represent the two-phase flow dynamics

Price: $29

Multiphase Flow: Beginner CFD Training Package is a ten-project introduction to multiphase flow simulation in ANSYS Fluent. Starting from simple free-surface flows and building through injectors, industrial processes, and the Mixture and Eulerian models, it gives newcomers a hands-on, application-driven foundation in the VOF, Mixture, and Eulerian techniques behind modern multiphase engineering — one real engineering case at a time.

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

Price: $120

In this project, we are simulating the bubbling fluidized bed (BFB), a type of fluidized bed reactor where solid particles are suspended and agitated by the upward flow of gas The design and operation of BFBs allow for better control of temperature and reaction conditions, leading to improved efficiency and product quality in industrial processes The 2D geometry of the BFB is designed using Design Modeler software. Then, it is meshed in ANSYS Meshing. In total 26800 cells are generated. To model BFB, two Eulerian phases are defined by the Eulerian multiphase model.

Price: $14

This product uses ANSYS Fluent software to investigates the effect of thermocapillary convection on the melting and deforming processes of a Phase Change Material (PCM) subjected to local heating The VOF method tracks the deformable liquid-gas interface Thermocapillary convection is modeled by including a volumetric source term in the momentum equation Enthalpy-Porosity Method models the melting process The geometry is designed using SpaceClaim, and the meshing is performed using Ansys Meshing, with 47,500 cells.