Local inhomogeneities enable phase-dependent non-adiabatic parametric amplification of propagating spin waves in YIG nanostructures via momentum scattering, as shown by micromagnetic simulations and Brillouin light scattering experiments.
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Micromagnetic modeling shows that the orientation of weak in-plane uniaxial anisotropy can tune efficient resonant coupling between surface acoustic waves and spin waves even in the parallel propagation configuration.
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Phase-dependent parametric amplification of propagating spin waves in YIG nanostructures enabled by local inhomogeneities
Local inhomogeneities enable phase-dependent non-adiabatic parametric amplification of propagating spin waves in YIG nanostructures via momentum scattering, as shown by micromagnetic simulations and Brillouin light scattering experiments.
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Micromagnetic Modeling of Surface Acoustic Wave Driven Dynamics: Interplay of Strain, Magnetorotation, and Magnetic Anisotropy
Micromagnetic modeling shows that the orientation of weak in-plane uniaxial anisotropy can tune efficient resonant coupling between surface acoustic waves and spin waves even in the parallel propagation configuration.