Polar magneto-optical Kerr effect for low-symmetric ferromagnets
Helmut Rathgen, Mikhail I. Katsnelson, Olle Eriksson, Gertrud Zwicknagl
Abstract
The polar magneto-optical Kerr effect (MOKE) for low-symmetric ferromagnetic crystals is investigated theoretically based on first-principle calculations of optical conductivities and a transfer matrix approach for the electrodynamics part of the problem. Exact average magneto-optical properties of polycrystals are described, taking into account realistic models for the distribution of domain orientations. It is shown that for low-symmetric ferromagnetic single crystals the MOKE is determined by an interplay of crystallographic birefringence and magnetic effects. Calculations for single and bi-crystal of hcp 11-20 Co and for a polycrystal of CrO2 are performed, with results being in good agreement with experimental data.
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