Finite Element Analysis of Permanent Magnet Motors Using EMDLAB

In this course, we will analyze four permanent-magnet motor case studies and derive their complete performance characteristics using finite element analysis in EMDLAB. Register This Course Here Contents: Discussion on target motors. How to create geometry in EMDLAB? How to generate a mesh in EMDLAB? How to use the EMDLAB magnetic static solver? Stator modeling

Advanced Course on Iron Loss Calculation in Electrical Machines

Iron loss calculation in electrical machines is a complex task because it depends on several interacting phenomena, including nonlinear magnetic material behavior, rotating and alternating flux components, space and time harmonics, and local saturation effects. Various methods have been proposed for iron loss estimation, ranging from simple analytical models based on Steinmetz-type equations to more

Advanced Course on Optimal Design of IPM Motors

Register This Course Here Abstract: Master the automated design optimization of the IPM motor by applying powerful classical and intelligent algorithms to solve both single- and multi-objective challenges. This hands-on course teaches you to build a complete optimization workflow by implementing algorithms in MATLAB and interfacing with finite element analysis for high-fidelity simulations (prerequisite: link).

Machine Learning for Design, Analysis, and Optimization of Electrical Machines

Register This Course Here Abstract: Master the complete workflow, from FEA data to deployed neural networks, and accelerate your design cycle. Join the 4-session workshop that teaches engineers how to model electrical machines’ performance using MATLAB and ML (no prior AI experience required). Course Contents: Go Beyond FEA: Understand why traditional “white-box” analytical models are

Advanced Course on Design & Optimization of Surface PMSMs Using Parallel Finite Element Computing in EMDLAB

Request Live Meetings In this course, we cover the advanced optimization of surface-mounted permanent magnet synchronous motors using parallel finite element computing in EMDLAB. The goal is to learn how to write code for high-level optimization tasks. We will also compare the obtained results with those generated by Ansys Maxwell. https://youtu.be/7B1kwoORDro

Advanced Course on Thermal Analysis and Design of Radial-Flux Electrical Machines

Abstract: This course covers the thermal analysis and design of a radial-flux electric machine of your choice using a powerful dual-method approach. The study begins with the development of an analytical model, namely a Lumped Parameter Thermal Network (LPTN), which is then implemented in MATLAB. Subsequently, the LPTN results are validated against numerical simulations, including