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Orbital-FFLO State and Josephson Vortex Lattice Melting in Layered Ising Superconductors
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This study explores the impact of in-plane magnetic fields on the superconducting state in layered Ising superconductors, resulting in the emergence of the orbital Fulde-Ferrell-Larkin-Ovchinnikov (FFLO) state coupled with Josephson vortices. Recent experiments have revealed an unexpected first-order phase transition in these superconductors under strong in-plane magnetic fields. Our theoretical analysis demonstrates that this phase transition is primarily driven by the formation and subsequent melting of a Josephson vortex lattice within the superconducting layers. As the magnetic field increases, the vortex lattice undergoes a transition from a solid to a liquid state, triggering the observed first-order phase transition. We calculate both the melting line and the in-plane critical field in the phase diagram, showing strong agreement with experimental results.
Forward citations
Cited by 2 Pith papers
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Orbital FFLO and layer-selective FFLO phases in trilayer NbSe$_2$
Trilayer NbSe2 is predicted to host a layer-selective FFLO superconducting phase in which finite-momentum and zero-momentum Cooper pairs coexist.
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Exceedingly large in-plane critical field of finite-momentum pairing state in bulk superlattices
A bulk van der Waals superlattice shows an in-plane upper critical field above eight times the Pauli limit, attributed to an orbital-effect-induced finite-momentum pairing state.
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