Applied Physics Letters · 2013 · 25 citations · 26 references
Magnetic PropertiesOptical MaterialsEngineeringSpin Wave ModesMagnetic ResonanceMagnonicsSpintronic MaterialSpin WavesSpin DynamicMagnetic MaterialsSpin PhenomenonMagnetoresistanceMagnetismMultiferroicsMagnetoplasmonicsQuantum MaterialsMagnetic Thin FilmsInduced Spin WavesNanophotonicsMaterials SciencePhysicsLow-dimensional SystemsMagnonic DevicesMagnetoelasticityMagnetic MaterialMicro-magnetic ModelingSpintronicsFerromagnetismCross-shaped Ni80fe20 NanoelementsNatural SciencesCondensed Matter PhysicsApplied Physics
Optically induced spin waves in Ni80Fe20 (permalloy) cross-shaped nanoelements are studied by time-resolved magneto-optical Kerr effect microscope. A strong anisotropy in the spin wave modes are observed with the orientation angle (ϕ) of the in-plane bias magnetic field. As ϕ deviates from 0° a single resonant mode splits into a numbers of modes, while the powers of the higher frequency modes increase as ϕ increases from 0 to 45°. The lowest frequency mode shows a four-fold configurational anisotropy. The mode of a single cross remains unaffected by the magnetostatic interaction of the neighbouring elements for ϕ = 0°, while the effect increases with ϕ and becomes maximum at 45°, making these elements interesting candidates as building blocks for magnonic devices.
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