Theory of Strain-Induced Anisotropy and the Rotation of the Magnetization in Cubic Single Crystals
- 1 February 1969
- journal article
- Published by AIP Publishing in Journal of Applied Physics
- Vol. 40 (2) , 661-669
- https://doi.org/10.1063/1.1657448
Abstract
A theory for strain-induced magnetic anisotropy energy in cubic single-domain single-crystal materials based on the usual magnetoelastic coupling model is given in this paper. The application of uniaxial strain such as produced by shock-wave loading induces an anisotropy field which can rotate the magnetization vector. Calculations based on the theory were made for various choices of the crystalline anisotropy constants and magnetoelastic constants; in addition, specific applications were made to nickel ferrite and YIG.This publication has 13 references indexed in Scilit:
- Pressure Dependence of the Magnetization of Invar and Silectron from 30–450 kbarJournal of Applied Physics, 1968
- Shock-Induced Demagnetization of YIGJournal of Applied Physics, 1968
- Shock-Wave Compression of 30% Ni-70% Fe Alloys: The Pressure-Induced Magnetic TransitionJournal of Applied Physics, 1967
- Ultrasonic Study of First-Order and Second-Order Magnetoelastic Properties of Yttrium Iron GarnetPhysical Review B, 1966
- Second-Order Magnetoelastic Properties of Yttrium Iron GarnetJournal of Applied Physics, 1966
- Magnetostriction, Forced Magnetostriction, and Anomalous Thermal Expansion in FerromagnetsPhysical Review B, 1965
- Magnetostriction in Cubic Néel Ferrimagnets, with Application to YIGPhysical Review B, 1963
- Pressure Dependence of the Microwave Resonance Properties of Some Spinel and Garnet FerritesPhysical Review B, 1961
- Magnetostriction and Magnetomechanical EffectsReports on Progress in Physics, 1955
- Physical Theory of Ferromagnetic DomainsReviews of Modern Physics, 1949