Applied CFD Simulations Course II
This is an applied CFD course for CFD users that know the basic concepts, however needs to improve their CFD Skills for practical simulations in research and industry using ANSYS Fluent software, SimScale platform and OpenFOAM programing. The course covers following steps and topics within 14 lectures x 90 min, starting on February 18, Tuesdays and Thursdays 2:30-4:00 pm Berlin Time. Registration Form is following (after course content), Registration Deadline: February 17, Early Registration (20% discount) Deadline: January 31.
CFD Simulations on Desktop can provide research opportunities like Experimental Setup and Industrial Pilot Plants. When labs tools and material are expensive, CFD simulations are excellent alternative to minimize the required experiments. Furthermore, CFD can provide details properties and parametric studies which are out of experimental limitations.
Many students and experts become familiar with Computational Fluid Dynamics (CFD) Simulations via published CFD results. As CFD is applicable for all scientific and technological fields, you can find new CFD results every day.
It is noted that CFD isn’t limited to fluid flow studies and can be called CTP (Computational Transport Phenomena) covering all natural phenomena and industrial processes, based on material and energy conservation laws and transport mechanisms implemented in Navier Stokes equations, for all gas, liquid and solid states (even plasma and acoustics), from micron to Km scales. This is why, CFD Skills have been demanded continuously in recent years.
ANSYS Fluent software, as one of the most advanced CFD tools in the world, offers extensive possibilities for simulating and analyzing fluid flows. Novel CFD platforms such as SimScale that provides online CFD simulation on cloud, are new opportunities. For complex physics and advanced customized CFD simulations, OpenFOAM is one of the best.
In this training course, our goal is to familiarize students, experts and engineers with practical CFD simulations using ANSYS Fluent software, SimScale platform and OpenFOAM programing. We will review the principles governing fluid flows, numerical solution methods, and various simulation steps such as preprocessing, solving, and postprocessing. This course is designed in such a way that students can easily understand complex concepts and acquire the necessary skills to carry out real projects.
Using practical examples and applied projects, those interested in learning the skills of analyzing fluid flows, heat and mass transfer and performing effective simulations will gradually be able to apply such analyzes in various engineering and research fields. At the end of this course, trainees will have the ability to extract meaningful results from CFD simulations and apply them to solve practical engineering and industrial problems.
Objectives:
- Familiarity with CFD and the philosophy of its use,
- Familiarity with commercial software for pre-processing, processing and post-processing in the field of CFD,
- Generation of computing mesh(grid) using Ansys Mesh software
- Using graphical user interface (GUI) in Fluent, SimScale and OpenFOAM software and
- Using Fluent software, SimScale and OpenFOAM platform to solve different fundamental and practical case studies.
Trainees:
Engineering students and graduates
- Aerospace and Mechanical Engineering
- Chemical and Process Engineering
- Petroleum Engineering, Oil & Gas Industry
- Sea and Shipbuilding
- Railways
- Thermal Engineering and Energy Processes
- Construction
- Metallurgy
- Environmental Technology and Water Ground
- Biomedical Engineering and Pharmaceutical Industry
Course Details and Lecture
| Lecture 1: Introduction Introduction to CFD Advantages and challenges of CFD simulations Steps to solve a problem by CFD method Errors in CFD simulations Introduction of commercial CFD software Introducing the history of Ansys Fluent software Questions and answers |
| Lecture 2: General Usage of Fluent Software and Incompressible Flow Simulations Flow simulation steps with ANSYS Fluent software Introducing the mesh (grid) generation Mesh (Grid) generation in ANSYS Mesh software Introducing the various boundary conditions in Fluent software Introducing the ANSYS Fluent graphical user interface (GUI) Physical and mathematical modeling in ANSYS Fluent GUI Solving an example: Fluid flow in tube (Incompressible, Laminar) Questions and answers |
| Lecture 3: Turbulent Fluid Flow Modeling: Definition of turbulence and turbulent flows Causes of turbulence and effects of turbulence on flow characteristics Numerical methods of turbulence modeling Geometrical modeling and mesh generation considerations Solving an example Questions and answers |
| Lecture 4: Compressible Flow Modeling Characteristics of incompressible and compressible flows Introducing the equations governing incompressible and compressible flows Geometrical modeling and mesh generation for incompressible and compressible flows Solution strategy in incompressible and compressible flows Solving an example for incompressible flow Solving an example for compressible flow Questions and answers |
| Lecture 5: Heat Transfer Simulations (Conduction and Convection Mechanisms) Conduction heat transfer Convection heat transfer Radiation heat transfer Solve the sample example for conduction heat transfer Solving an example for convection heat transfer Solving an example for combined conduction and convection heat transfer Questions and answers |
| Lecture 6: Rotating Flow Simulations Multiple Reference Frames (MRF) model Definition of Swirling Flow Definition of rotating flows Single Reference Frame (SRF) model Multiple Reference Frame (MRF) model Mixing Plane (MP) model Sliding Mesh (SM) model Solving an example for rotating flow modeling Questions and answers Lecture 7: Porous Media Transport Phenomena Simulations Fluid flow in porous media (Darcy scale simulation) Mass transfer in porous media Pore Scale Simulation Questions and answers |
| Lecture 8: Multiphase Flows Simulations Introducing the multiphase flows Types of multiphase flows Numerical methods of multiphase flow modeling VOF model Mixture model Eulerian model DPM model Solving an example Questions and answers |
| Lecture 9: Reacting Flows Simulations Definition of flows contains chemical reaction Numerical methods of modeling reacting flows Species Transport Model Solving an example Questions and answers Lecture 10 and 11: SimScale Online CFD Simulations Lecture 12 and 13: Overview on OpenFOAM Simulations |
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