Microwave irradiation induces a phase-independent current term that produces tunable asymmetric critical currents in Josephson junctions with Yu-Shiba-Rusinov states once particle-hole and inversion symmetries are broken.
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Zero-field Josephson nonreciprocity in 2H-TaS2/2H-NbSe2 junctions, together with nonlinear Hall transport, indicates intrinsic time-reversal symmetry breaking in the multiband superconductor 2H-TaS2 via interband scattering.
Diode efficiency in Rashba superconductors peaks at the Lifshitz transition to strong helical phases with Bogoliubov Fermi surfaces, while Josephson current anisotropy offers a probe for these surfaces in junctions.
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Diode effect in microwave irradiated Josephson junctions with Yu-Shiba-Rusinov states
Microwave irradiation induces a phase-independent current term that produces tunable asymmetric critical currents in Josephson junctions with Yu-Shiba-Rusinov states once particle-hole and inversion symmetries are broken.
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Signatures of time-reversal-symmetry breaking in multiband 2H-TaS2 revealed by zero-field Josephson nonreciprocity
Zero-field Josephson nonreciprocity in 2H-TaS2/2H-NbSe2 junctions, together with nonlinear Hall transport, indicates intrinsic time-reversal symmetry breaking in the multiband superconductor 2H-TaS2 via interband scattering.