Collinear spin-orbital magnets host mixed-parity altermagnetism as an intermediate regime between even- and odd-parity forms, inducible by circularly polarized light in a two-sublattice two-orbital model.
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Next-nearest-neighbor Coulomb repulsion favors a 2x2 loop current charge density wave on the kagome lattice at van Hove filling, with stronger interactions driving a C6-breaking nematic state and superconducting instabilities descending from the charge fluctuations.
The work identifies a quantum-geometric shift of quasiequilibrium, arising from finite wave-packet spread during relaxation, as the origin of nonreciprocal current driven by the quantum-metric dipole.
citing papers explorer
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Mixed-Parity Altermagnetism in Collinear Spin-Orbital Magnets
Collinear spin-orbital magnets host mixed-parity altermagnetism as an intermediate regime between even- and odd-parity forms, inducible by circularly polarized light in a two-sublattice two-orbital model.
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Exotic charge density waves and superconductivity on the Kagome Lattice
Next-nearest-neighbor Coulomb repulsion favors a 2x2 loop current charge density wave on the kagome lattice at van Hove filling, with stronger interactions driving a C6-breaking nematic state and superconducting instabilities descending from the charge fluctuations.
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Quantum-geometric shift of quasiequilibrium: Origin of nonreciprocal current driven by quantum-metric dipole
The work identifies a quantum-geometric shift of quasiequilibrium, arising from finite wave-packet spread during relaxation, as the origin of nonreciprocal current driven by the quantum-metric dipole.