Li Wei, an accomplished expert in heat transfer analysis using Abaqus, is a resident of China. With a strong educational background, extensive experience, and deep expertise in Abaqus, Li has established himself as a leading authority in the field of thermal analysis.

Education:
Li Wei completed his Bachelor’s degree in Mechanical Engineering from Tsinghua University in Beijing, China. During his undergraduate studies, he developed a keen interest in heat transfer phenomena and computational methods for thermal analysis. This passion led him to pursue further education in the field, and he obtained a Master’s degree in Thermal Engineering from Shanghai Jiao Tong University.

Career and Professional Accomplishments:
Li began his professional career as a thermal engineer at a prestigious technology company in Shanghai. His exceptional skills in heat transfer analysis and his proficiency in utilizing Abaqus for thermal simulations quickly gained recognition. Li’s expertise enabled him to work on a wide range of projects, including electronic cooling, thermal management of industrial processes, and energy system optimization.

Expertise and Contributions:
Li Wei’s expertise lies in the field of heat transfer analysis, with a focus on utilizing Abaqus software for accurate and efficient simulations. He is well-versed in conducting steady-state and transient thermal analyses, evaluating conduction, convection, and radiation heat transfer mechanisms. Li specializes in modeling heat transfer in complex geometries, such as electronic components, heat exchangers, and industrial systems.

Using Abaqus, Li has successfully simulated and optimized thermal management solutions for various industries, including electronics, automotive, aerospace, and energy. He is skilled in performing coupled thermal-mechanical analyses to evaluate the effects of thermal loads on structural integrity. Li’s expertise also extends to multiphysics simulations, where he combines heat transfer analysis with other engineering disciplines to provide comprehensive solutions.

Li is known for his ability to accurately model material properties and boundary conditions to capture realistic thermal behavior. He leverages advanced techniques such as phase change modeling, heat source modeling, and heat transfer coefficient estimation to ensure precise predictions. His insights have helped clients improve design efficiency, optimize energy consumption, and enhance product performance.

Li Wei actively stays updated with the latest advancements in heat transfer analysis and Abaqus capabilities. He attends conferences, participates in workshops, and engages in continuous professional development to expand his knowledge and refine his skills. Li is also passionate about sharing his expertise and frequently contributes to technical publications and presents at industry events.

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Friction Stir Welding simulation Tutorial | FSW Advanced level

 100.0
(1)
Friction stir welding (FSW) involves complex material flow and plastic deformation. Welding parameters, tool geometry, etc., have important effects on the material flow pattern, heat distribution, and eventually on the structural evolution of the material. In an Abaqus friction stir welding example, the rotational movement of the tool and its friction in contact with the workpiece causes heat generation, loss of strength, and an increase in material ductility around the tool. The feeding movement of the tool causes the material to transfer from the front of the tool to the back of it, and eventually leads to a join. Therefore, heat plays an important role in this process, and parameters such as rotational speed, tool feeding speed, tool geometry, and others, all somehow have a significant impact on controlling the amount of incoming heat, the disturbance and flow pattern of the material, the evolution of the microstructure, and the quality of the resulted weld. This friction stir welding example simulation tutorial shows you how to simulate the Abaqus FSW simulation process in such a way that you can accurately predict the effect of all relevant parameters on the process. In most of the implemented projects, welding mud, and welding defects (welding overfills and overlaps, weld gaps) are not visible and predictable; however, in this simulation, these cases are visible. This project is designed to enhance participants' understanding of how to accurately simulate the FSW process to see the weld's general appearance.

Thermal Heat Transfer in Abaqus

 120.0
(11)
This package is related to Thermal Analysis in Abaqus. This package helps Abaqus users to simulate professionally. In general, Abaqus can solve the following types of heat transfer problems (For thermal and thermo-mechanical problems):
  • Uncoupled heat transfer analysis 
  • Sequentially coupled thermal-stress analysis
  • Fully coupled thermal-stress analysis
  • Adiabatic analysis