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Quantum Nucleation of Skyrmions in Magnetic Films by Inhomogeneous Fields

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arxiv 1604.04010 v1 pith:BRIJLYGL submitted 2016-04-14 cond-mat.str-el

classification cond-mat.str-el
keywords magneticnucleationfieldsingleskyrmionslocalquantumskyrmion
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Recent experiments have reported on controlled nucleation of individual skyrmions in chiral magnets. Here we show that in magnetic ultra-thin films with interfacial Dzyaloshinskii-Moriya interaction, single skyrmions of different radii can be nucleated by creating a local distortion in the magnetic field. In our study, we have considered zero temperature quantum nucleation of a single skyrmion from a ferromagnetic phase. The physical scenario we model is one where a uniform field stabilizes the ferromagnet, and an opposing local magnetic field over a circular spot, generated by the tip of a local probe, drives the skyrmion nucleation. Using spin path integrals and a collective coordinate approximation, the tunneling rate from the ferromagnetic to the single skyrmion state is computed as a function of the tip's magnetic field and the circular spot radius. Suitable parameters for the observation of the quantum nucleation of single skyrmions are identified.

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    cond-mat.mes-hall 2019-08 conditional novelty 7.0 of 10

    An exact quantum continuity equation for lattice vorticity is derived, yielding a Kubo formula for vorticity conductivity and a proposed spin-based injection device.

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