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Influence of a multiaxial stress on the reversible and irreversible magnetic behaviour of a 3%Si-Fe alloy
Author(s) -
Mahmoud Rekik,
Olivier Hubert,
Laurent Daniel
Publication year - 2014
Publication title -
international journal of applied electromagnetics and mechanics
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.239
H-Index - 30
eISSN - 1875-8800
pISSN - 1383-5416
DOI - 10.3233/jae-141793
Subject(s) - materials science , yoke (aeronautics) , stress (linguistics) , magnetic field , dissipative system , magnetic reluctance , ferromagnetism , magnetic shape memory alloy , mechanical engineering , alloy , electrical steel , magnet , composite material , magnetic domain , condensed matter physics , electrical engineering , engineering , magnetization , physics , linguistics , fly by wire , philosophy , quantum mechanics , control system
LGEP 2014 ID = 1606International audienceThe research presented in this paper is motivated by the design of electrical devices submitted to mechanical stress. It aims at studying the magnetic behaviour of ferromagnetic materials submitted to biaxial stress. It deals with the evolution of the magnetic susceptibility, coercive field and magnetic losses with respect to stress, magnetic field level and frequency. These quantities are of primary importance in the design of rotors for high speed rotating machines. The work is focused on the magnetic behaviour of a standard grade of Iron-Silicon alloy under the form of thin sheet. Non conventional experiments are performed on cross-shaped samples in order to apply biaxial stress representative of the loadings experienced by rotors of rotating machines. These experiments are performed on a multiaxial testing machine, ASTREE. The magnetic loading is applied using a single U-yoke. The measurement of magnetic induction, magnetic field and strain is conducted by the means of needle-B sensor, H-coil sensors and Digital Image Correlation (DIC) respectively. Both anhysteretic and dissipative responses to magneto-mechanical loadings are considered. The results allow to identify the more critical stress configurations for this material

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