Title :
Modeling of Magneto-Mechanical Coupling Using Magnetic Volume Integral and Mechanical Finite-Element Methods
Author :
Carpentier, Anthony ; Galopin, Nicolas ; Chadebec, Olivier ; Meunier, Gerard
Author_Institution :
G2Elab, Univ. de Grenoble-Alpes, Grenoble, France
Abstract :
The magneto-mechanical coupling with deformable bodies is studied using different numerical methods for both physics. The magnetic behavior is considered linear and without magnetostrictive effects; then equations of the magneto-mechanical coupling can be solved separately. A volume integral method using the magnetic scalar potential formulation is used. This method is particularly well suited to compute fields without meshing the air domain. A local application of the virtual work principle, adapted to the integral formulation, is used to compute the nodal magnetic force distribution at the origin of the magneto-mechanical coupling with deformable bodies. An advantage of this approach is that the same mesh can be used by both methods during the resolution steps.
Keywords :
finite element analysis; magnetic forces; magnetomechanical effects; magnetostatics; deformable bodies; linear magnetic behavior; magnetic scalar potential formulation; magnetic volume integral methods; magnetomechanical coupling; mechanical finite element methods; nodal magnetic force distribution; Magnetic domains; Magnetic forces; Magnetic separation; Magnetoelectric effects; Magnetostatics; Magnetostriction; Finite-element method; integral method; magneto-mechanical coupling; nodal magnetic forces;
Journal_Title :
Magnetics, IEEE Transactions on
DOI :
10.1109/TMAG.2013.2283600