Physical review. B./Physical review. B · 2017 · 27 citations · 35 references
Natural SciencesMaterials SciencePhysicsCondensed Matter PhysicsMagnetic MaterialsThin FilmsFerromagnetismMagnetic AnisotropyMagnetic CharacterizationMagnetic Thin FilmsMagnetization ProcessesThin Film Magnetic PropertiesFirst-order Reversal CurvesMagnetization In Thin FilmsMagnetization ReversalMagneto-optic Kerr EffectMagneto-optical Kerr EffectMagneto-optical Kerr Effect MicroscopyPerpendicular Magnetic AnisotropyStripe Domains
The magnetization reversal of CoCrPt thin films has been examined as a function of thickness using magneto-optical Kerr effect (MOKE) microscopy and first-order reversal curves (FORC) techniques. MOKE images show differentiated magnetization reversal regimes for different film thicknesses: while the magnetic domains in 10-nm-thick CoCrPt film resemble a fractal structure, a labyrinth stripe domain configuration is observed for 20-nm-thick films. Although FORC distributions for both cases show two main features related to irreversible processes (propagation and annihilation fields) separated by a mostly flat region, this method can nonetheless distinguish which magnetization reversal process is active according to the horizontal profile of the first FORC peak, or propagation field. A single-peak FORC profile corresponds to the fractal magnetization reversal, whereas a flat-peak FORC profile corresponds to the labyrinth magnetization reversal.
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