Ansys Magnetostatic Tutorial ✯

Define the boundary conditions by selecting "Boundary Conditions" > "New" from the menu. Choose "Magnetic Field" as the boundary condition type and set the magnetic field to:

/TITLE, 2D Magnetostatic - Permanent Magnet & Iron /PREP7 ET,1,PLANE53 ! Magnetic vector potential element MP,MURX,1,1 ! Air MP,MURX,2,1.05 ! Permanent magnet (relative permeability) MP,MGXX,2,0 ! Remanence direction X MP,MGYY,2,890000 ! Remanence A/m (e.g., for NdFeB) MP,MURX,3,2000 ! Iron (linear) RECTNG,0,10,0,10 ! Magnet RECTNG,0,40,-5,0 ! Iron plate RECTNG,-20,50,-20,30 ! Air region AOVLAP,ALL ASEL,S,AREA,,1 ! Assign air material AATT,1,,1 ASEL,S,AREA,,2 ! Magnet AATT,2,,1 ASEL,S,AREA,,3 ! Iron AATT,3,,1 ALLSEL MSHKEY,0 AMESH,ALL /SOLU MAGSOLV,2 ! 2D magnetostatic solver /POST1 PLF2D ! Plot flux lines PLNSOL,B,SUM ! Plot B magnitude

Magnetostatic analysis is a fundamental simulation technique used to calculate magnetic fields generated by or permanent magnets . In this tutorial, you will learn the essential workflow for conducting a magnetostatic simulation using Ansys Maxwell , the industry-standard tool for low-frequency electromagnetics. What is Magnetostatic Analysis? ansys magnetostatic tutorial

: Draw the components of your system (e.g., coils, steel cores, or magnets) using the toolset in the Modeler window

Comprehensive Ansys Magnetostatic Tutorial: A Step-by-Step Guide Air MP,MURX,2,1

Run the analysis by selecting "Analyze" > "Run" from the menu.

In this tutorial, we will simulate a simple electromagnetic device, a coil with a ferromagnetic core. Remanence A/m (e

Maxwell’s magnetostatic solver uses an process based on energy error. You don’t need a perfect initial mesh; the solver will refine.

Magnetostatic analysis is a type of electromagnetic simulation that studies the behavior of magnetic fields in a static condition, i.e., when the magnetic field is not changing over time. This type of analysis is essential for designing and optimizing electromagnetic devices, as it helps engineers to understand how the magnetic field interacts with the device and its surroundings.