Synthetic magnetic fields induce Fraunhofer-like patterns in the critical current of atomic Josephson junctions via spatial interference and Josephson vortices, distinct from charged superconducting cases due to atomic neutrality.
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Optimizing collision gates for ultracold fermions in double-well potentials reveals momentum-dependent interaction energies that are higher for atoms starting in separate subwells than the same subwell, supporting case-specific high-fidelity gates beyond Fermi-Hubbard models.
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Fraunhofer Patterns in Atomic Josephson Junctions
Synthetic magnetic fields induce Fraunhofer-like patterns in the critical current of atomic Josephson junctions via spatial interference and Josephson vortices, distinct from charged superconducting cases due to atomic neutrality.
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Optimizing two-qubit gates for ultracold fermions in optical lattices
Optimizing collision gates for ultracold fermions in double-well potentials reveals momentum-dependent interaction energies that are higher for atoms starting in separate subwells than the same subwell, supporting case-specific high-fidelity gates beyond Fermi-Hubbard models.