Characterization and multiscale modeling of the magneto-elastic behavior of Galfenol

The properties of giant magnetostrictive materials in actuation, sensing, or energy harvesting applications are very sensitive to pre-stress levels. This work presents the experimental characterization of the magneto-mechanical behavior of Galfenol under static compressive and tensile stress. The re...

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Veröffentlicht in:IEEE transactions on magnetics 2023-11, Vol.59 (11), p.1-1
Hauptverfasser: Domenjoud, Mathieu, Pecheux, Alexis, Daniel, Laurent
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creator Domenjoud, Mathieu
Pecheux, Alexis
Daniel, Laurent
description The properties of giant magnetostrictive materials in actuation, sensing, or energy harvesting applications are very sensitive to pre-stress levels. This work presents the experimental characterization of the magneto-mechanical behavior of Galfenol under static compressive and tensile stress. The results show the high sensitivity of both magnetization and strain to the stress level. A multiscale modeling tool is then used to model the measured magnetic and magnetostrictive responses. The results demonstrate the ability of the proposed multiscale approach to capture the magneto-elastic effects with a very limited number of material parameters.
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subjects Actuation
Compressive properties
Crystallographic texture
Elastic limit
Elasticity
Energy harvesting
Engineering Sciences
fiber
Galfenol
Hysteretic and anhysteretic behavior
Magnetic domains
Magnetic field measurement
Magnetic hysteresis
Magnetic properties
Magnetism
Magnetostriction
Magnetostriction strain
Materials
Mechanical properties
Modelling
Multiscale analysis
Multiscale model
Saturation magnetization
Strain
Stress
Tensile stress
Uniaxial tension and compression
Villari effect
title Characterization and multiscale modeling of the magneto-elastic behavior of Galfenol
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