Heat Transfer Online Courses
Here's every CFD online course related to Heat Transfer category.
Multi-Fuel Combustion Chamber CFD Simulation
Intermediate
Price: $12
This study presents a CFD simulation of multi-fuel combustion in a combustion chamber using ANSYS Fluent. The 3D geometry was designed in SpaceClaim and meshed in ANSYS Meshing with over 3.6 million polyhedra elements. The simulation employs the Species Transport Model with the Eddy-Dissipation model for turbulence-chemistry interaction. The analysis effectively captures key combustion dynamics, including temperature distribution, species mass fractions, flow patterns, and turbulence flame speed within the chamber.
Price: $140
This study presents a CFD analysis of methane-air combustion in a gas turbine combustor using ANSYS Fluent. The 3D geometry represents a quarter section of a cylindrical combustor, designed in ANSYS SpaceClaim. ANSYS Meshing is used to generate a high-resolution mesh with over 2 million elements. The simulation employs the Species Transport model with Volumetric Reaction and the Eddy-Dissipation model for turbulence-chemistry interaction. The analysis effectively captures key combustion dynamics, including species distribution, temperature profiles, pressure variations, and velocity fields within the combustor.
Price: $8
This product simulates a shell and plate heat exchanger using ANSYS Fluent software. The geometry of the problem is designed in spaceclaim. Then the Fluent meshing software was used to mesh the geometry producing 3,686,338 polyhedral elements. The turbulence of the flow is simulated via Realizable k-e model.
Price: $16
In this project, a part of an annular combustion chamber is simulated by Ansys Fluent software. Premixed combustion of methane-air is analyzed, and Zimont's method is also used to model the flame speed. Structured grid is used to create a mesh in the computing domain.
CO2 Plume Dynamics in a Seabed Environment
Intermediate, Advanced
Price: $12
The problem numerically simulates CO2 plume dynamics in a seabed environment using ANSYS Fluent software. The 2-D geometry is designed in ANSYS Design Modeler and ANSYS Meshing is used to generate a structured mesh with 306,278 elements. The Eulerian multiphase model is employed to handle the interaction between different phases. Results are analyzed , including CO2 distribution, pressure fields, and velocity patterns.
Price: $18
This project aims to evaluate the impact of tube geometry and nanofluid composition on heat transfer performance. Three nanofluid compositions are examined: Alumina/water, MWCNT/water, and a hybrid Alumina-MWCNT/water nanofluid. It explores two geometric configurations: circular and diamond-shaped tubes' effect on heat transfer performance. The turbulence of the flow is simulated by Realizable k-epsilon model. The single phase model is considered to simulate nanoparticle presence in the base fluid.
Price: $160
The problem numerically simulates the Water Jet Breakup using ANSYS Fluent software. The3-D geometry is designed in Design Modeler software. We used ANSYS Meshing to generate mesh; the element number equals 3,157,674. The Adaptive mesh refinement is the mesh method for this problem. The liquid bulk in the domain is simulated using VOF model. Also, the droplets are modeled via DPM model.
Packed Bed Reactor with Radiative Quartz Spheres
Intermediate, Advanced
Price: $12
This study numerically simulates the heat transfer and fluid dynamics in a packed bed reactor with radiative quartz spheres using ANSYS Fluent software. The 3-D model is designed using ANSYS Design Modeler and meshed with ANSYS Meshing software, resulting in approximately 4 million polyhedral elements. The simulation employs the RNG k-ε turbulence model with standard wall functions, and the Discrete Ordinate (DO) radiation model to capture temperature variations accurately. The energy equation is enabled to track temperature distribution, and the solver is pressure-based with steady-state conditions. The study aims to provide insights into optimizing packed bed reactor designs for various industrial applications.
Price: $32
This study uses ANSYS Fluent to simulate the combustion process of biomass waste in an industrial incinerator using Computational Fluid Dynamics (CFD). The 3-D geometry is designed in ANSYS Design Modeler, and then is meshed using ANSYS Mesh, with the total 6,893,518 element number. The RNG k-ε model with standard wall functions is utilized for turbulence modeling. The energy equation is enabled to accurately model heat transfer within the system. The species transport model is employed to simulate the combustion process, with two primary reactions defined. The eddy-dissipation model is activated for turbulence-chemistry interaction.