Nonlinear Proper Generalized Decomposition Method Applied to the Magnetic Simulation of a SMC Microstructure

Improvement of the magnetic performances of soft magnetic composites (SMC) materials requires to link the microstructure to the macroscopic magnetic behavior law. This can be achieved with the finite-element method using the geometry reconstruction from images of the microstructure. Nevertheless, it...

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Veröffentlicht in:IEEE transactions on magnetics 2012-11, Vol.48 (11), p.3242-3245
Hauptverfasser: Henneron, T., Benabou, A., Clenet, S.
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container_title IEEE transactions on magnetics
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creator Henneron, T.
Benabou, A.
Clenet, S.
description Improvement of the magnetic performances of soft magnetic composites (SMC) materials requires to link the microstructure to the macroscopic magnetic behavior law. This can be achieved with the finite-element method using the geometry reconstruction from images of the microstructure. Nevertheless, it can lead to large computational times. In that context, the proper generalized decomposition (PGD), that is an approximation method originally developed in mechanics, and based on a finite sum of separable functions, can be of interest in our case. In this work, we propose to apply the PGD method to the SMC microstructure magnetic simulation. A nonlinear magnetostatic problem with the scalar potential formulation is then solved.
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subjects Cross-disciplinary physics: materials science
rheology
Exact sciences and technology
Iron
Magnetic domains
Magnetic resonance imaging
Magnetic separation
Magnetism
Magnetostatics
Materials science
Microstructure
Nonlinear proper generalized decomposition (PGD)
Other topics in materials science
Physics
soft magnetic composites (SMC)
Soft magnetic materials
title Nonlinear Proper Generalized Decomposition Method Applied to the Magnetic Simulation of a SMC Microstructure
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