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Shreyas Muralidhar

Researcher at University of Gothenburg

Publications -  20
Citations -  410

Shreyas Muralidhar is an academic researcher from University of Gothenburg. The author has contributed to research in topics: Spin wave & Femtosecond. The author has an hindex of 6, co-authored 17 publications receiving 222 citations. Previous affiliations of Shreyas Muralidhar include Max Planck Society.

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Two-dimensional mutually synchronized spin Hall nano-oscillator arrays for neuromorphic computing

TL;DR: Robust mutual synchronization of two-dimensional SHNO arrays exposed to two independently tuned microwave frequencies exhibit the same synchronization maps as can be used for neuromorphic vowel recognition, and may in future enable neuromorphic computing on the nanoscale.
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Spin-orbit torque–driven propagating spin waves

TL;DR: In this article, the authors demonstrate how perpendicular magnetic anisotropy can raise the frequency of SOT-driven auto-oscillations in magnetic nanoconstrictions well above the SW gap, resulting in the efficient generation of field and current tunable propagating SWs.
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Spin-Orbit-Torque Driven Propagating Spin Waves

TL;DR: In this paper, the authors demonstrate how perpendicular magnetic anisotropy can raise the frequency of SOT driven auto-oscillations in magnetic nano-constrictions well above the SW gap, resulting in the efficient generation of field and current tunable propagating SWs.
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On the synthesis and microstructure analysis of high performance MnBi

TL;DR: In this paper, the authors showed that the magnetic properties of the Mn45Bi55 bulk magnets are stable up to 500 K and the nominal (BH)max values are still above 40 kJ/m3 at 500 K showing the potential ability for high-temperature applications.
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Phase-Binarized Spin Hall Nano-Oscillator Arrays: Towards Spin Hall Ising Machines

TL;DR: In this paper , the authors demonstrate a pathway towards an oscillator-based IM using arrays of nanoconstriction spin Hall nano-oscillators (SHNOs) and show how SHNOs can be readily phase binarized and how their resulting microwave power corresponds to well defined global phase states.