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We theoretically predict that vanadium-based Janus dichalcogenide monolayersconstitute an ideal platform for spin-orbit-torque memories. Using firstprinciples calculations, we demonstrate that magnetic exchange and magneticanisotropy energies are higher for heavier chalcogen atoms, while the brokeninversion symmetry in the Janus form leads to the emergence of Rashba-likespin-orbit coupling. The spin-orbit torque efficiency is evaluated usingoptimized quantum transport methodology and found to be comparable to heavynonmagnetic metals. The coexistence of magnetism and spin-orbit coupling insuch materials with tunable Fermi-level opens new possibilities for monitoringmagnetization dynamics in the perspective of non-volatile magnetic randomaccess memories.

Janus Monolayers of Magnetic Transition Metal Dichalcogenides as an All-in-One Platform for Spin-Orbit Torque