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Spin-Wave Enabled Computing & Reconfigurable Magnonics in Artificial Spin Ice

ORAL · Invited

Abstract

Much of the promise of artificial spin ice (ASI) lies in its huge array of potential microstates. This vast microstate space has long been proposed as a means to realising a broad suite of nanomagnetic functionalities. However, gaining experimental access to more than a handful of these states is severely challenging. Experimental demonstrations of distinct state-specific functionalities are similarly elusive.

My work as part of the Branford group at Imperial engages both these problems: developing new means of reconfigurable microstate control including single-island writing via optical & surface probe means and realising ASI-based reservoir computing & functional magnonics.

Publication: Gartside, Jack C., Stenning, Kilian D. et al. "Reconfigurable training and reservoir computing in an artificial spin-vortex ice via spin-wave fingerprinting." Nature Nanotechnology 17.5 (2022): 460-469. <br><br>Gartside, Jack C., Vanstone, Alex et al. "Reconfigurable magnonic mode-hybridisation and spectral control in a bicomponent artificial spin ice." Nature communications 12.1 (2021): 1-9. <br><br>Gartside, Jack C., et al. "Current-controlled nanomagnetic writing for reconfigurable magnonic crystals." Communications Physics 3.1 (2020): 1-8. <br><br>Gartside, Jack C., et al. "Realization of ground state in artificial kagome spin ice via topological defect-driven magnetic writing." Nature nanotechnology 13.1 (2018): 53-58. <br><br>Stenning, Kilian D., et al. "Low power continuous-wave all-optical magnetic switching in ferromagnetic nanoarrays." arXiv preprint arXiv:2112.00697 (2021).

Presenters

  • Jack C Gartside

    Imperial College London

Authors

  • Jack C Gartside

    Imperial College London