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    中文
    E-lesson

    Unlocked by Huaming: EM FE Method Applied for Transformers Design – e-lesson#4 – FEM Basics and Modelling Workflow

    Upcoming

    | Free Basic level

    Hosted by: Zlatko Hanic

    This lesson explains the practical process of building and verifying FEM models for transformer simulations.

    This lesson explains the practical workflow of finite element modelling for transformer simulations. Participants learn the essential steps required to construct a simulation model, including geometry preparation, material assignment, mesh generation, and solver configuration. We will discuss how engineers select appropriate solver types such as static, harmonic, or transient analysis depending on the physical problem. Special attention is given to the role of boundary conditions, convergence checks, and model verification. Participants gain insight into how FEM models translate physical transformer structures into computational representations capable of predicting electromagnetic and thermal behaviour.

     

    Learning Outputs • Understand the main steps in FEM modelling workflows • Define geometry, materials, and boundary conditions for simulations • Recognize solver types used in transformer analysis • Apply basic model verification and convergence checks

     

    The content of this lesson is fully vendor agnostic but it is sponsored by Huaming. 

     

    About the author

    Zlatko Hanic

    Zlatko Hanić is an Associate Professor at the University of Zagreb Faculty of Electrical Engineering and Computing (FER). He has over 15 years of experience in the analysis, design, and optimization of electromechanical and electromagnetic devices, including transformers. His work bridges academic research and practical engineering, specializing in advanced modeling, numerical analysis, and performance optimization of electrical machines.

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