
In this video, you’ll get an overview of the course structure, learning outcomes, and the key concepts you’ll explore throughout the course.
This video provides a foundational introduction to Numerical Methods and Finite Element Analysis (FEA), focusing on why numerical techniques are essential for solving real-world engineering problems that are difficult or impossible to solve analytically. You will learn the key differences between analytical and numerical methods, understand the concept of numerical analysis, and explore practical engineering applications using finite difference and finite element ideas. The video also explains how geometry affects electric field distribution, with real-world examples from electrical engineering.
This video covers the advantages and disadvantages of FEMM4.2
Step-by-Step FEMM 4.2 Simulation Workflow (Electrostatic & Electromagnetic) Ready to run your first real simulation in FEMM 4.2? In this video, we walk through the complete solution workflow—from understanding what you need before starting, all the way to mesh generation and result preparation. This session is hands-on and practical, showing both electromagnetic and electrostatic examples, so you can confidently apply FEMM 4.2 to real engineering problems. Whether you’re a student, beginner, or practising engineer, this video will help you build a strong simulation foundation and avoid common beginner mistakes.
This video is a direct continuation of the previous FEMM 4.2 simulation workflow tutorial. Here, we focus on Steps 8 and 9 of a FEMM simulation project using an electrostatic Trough Test Problem. You’ll learn how to solve the model, extract results, and post-process data, including how to export FEMM results and plot graphs in MATLAB. This session is fully practical and bridges the gap between simulation and result analysis. If you’ve already built the geometry, assigned materials, and created the mesh, this video shows you exactly what to do next.
Electrostatic Application: Underground Power Cable Simulation Using FEMM 4.2 In this video, we explore the electrostatic analysis of an underground power cable using FEMM 4.2. The tutorial provides a complete step-by-step study, from theoretical background to simulation results and practical insights. hat You’ll Learn in This Video: • How to simulate a single-layer underground power cable using FEMM 4.2 in electrostatic mode • How to plot and interpret: - Voltage distribution - Electric field distribution - Electric field vector plots • How to calculate the cable capacitance using FEMM • The effect of changing the insulator material permittivity • The influence of cable dimensions on electric field distribution • Extension to a multilayer underground cable (two-layer case study) and its impact on the electric field
In this video,
•We built a simple electromagnetic model based on a magnetic circuit, similar to those used in relays or transformers.
•We assigned the magnetic properties of iron by defining its permeability or implementing a B–H curve for a specific material.
•We refined and adjusted the mesh to study its effect on accuracy.
•We analyzed the results by plotting the magnetic flux density along a selected contour line and visualizing the magnetic field using vector plots.
•We calculated key electromagnetic quantities, including inductance and force.
This is an exercise for elctrostatic problem to practise after finishing the course. Also, the (.fee) file is uploaded
This is an exercise for an electromagnetic problem to practise after finishing the course. Also, the (.fem) file is uploaded
This course provides a comprehensive and practical introduction to Numerical Methods and Finite Element Analysis (FEA) with hands-on training using FEMM 4.2. It is designed for students, researchers, and engineers who want to understand the fundamentals of FEA and confidently apply them to real-world electrostatic and electromagnetic problems.
The course begins with an overview of numerical methods and the basic principles of finite element analysis, helping learners understand how complex engineering problems are converted into solvable numerical models. You will then explore why FEMM 4.2 is widely used, its capabilities, limitations, and the types of applications for which it is best suited.
Step by step, you will learn how to set up simulations in FEMM 4.2, following a complete workflow—from problem definition and geometry creation to material assignment, meshing, solving, and post-processing. The course emphasizes practical learning through electrostatic and electromagnetic applications, allowing you to model, analyze, and interpret simulation results with confidence. Extra exercises will be added to have more practice using FEMM4.2.
By the end of the course, you will have a strong foundation to apply FEMM in academic projects, research work, and industry-oriented engineering problems, and the skills to make informed engineering decisions based on simulation results.