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Berry Curvature Induced Spin Nernst and Thermal Edelstein Effects in Proximity Superconductors
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Berry Curvature Induced Spin Nernst and Thermal Edelstein Effects in Proximity Superconductors
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We propose two thermo-spintronic responses in proximity induced superconductors with spin-orbit coupled band - spin Nernst effect and thermal Edelstein effect stemming respectively from momentum-space and mixed superconducting Berry curvatures. We unveil that the Bloch band spin-orbit coupling and pairing are entangled in shaping the superconducting Berry curvatures rather than in an additive manner. The resulting thermo-spintronic responses are significantly enhanced at low temperatures by the emergence of Bogoliubov Fermi surface, and can be effectively controlled by tuning the latter. The effects render a probe of Bogoliubov Fermi surface and superconducting Berry curvatures supported by it. Our work reveals Berry curvature properties in topologically trivial proximity superconductors with spin-orbit coupling, and opens a new route to superconducting spintronics.
Forward citations
Cited by 2 Pith papers
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Anomalous Hall Effect Driven by Chiral Superconductivity
A minimal hydrodynamic model predicts an anomalous Hall voltage that switches on below Tc in a chiral superconductor due to persistent quasiparticle current in an open-circuit bilayer setup.
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Berry curvature effects of chiral superconducting rhombohedral graphene
Bogoliubov Fermi surfaces from band warping drive nonquantized thermal Hall conductivity and strongly enhanced low-T spin/orbital Nernst responses in chiral p-wave rhombohedral graphene.
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