Embedding the sawtooth limit in a zigzag ladder of two coupled SU(2)_1 CFTs with extreme velocity ratio cancels the leading staggered interaction, leaving a marginal twist that collapses the apical spin velocity and causes energy-scale collapse independent of spatial correlation length.
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Non-local interactions induce quantum-geometry-driven spin loop currents that lift degeneracies and open a full gap, realizing a topological Kondo insulator in MoTe2/WSe2 at ν=2.
An alternative open boundary condition in the Ising chain maps the system to two Kitaev chains, switching the topological degeneracy due to gauge dependence of the SSH winding number.
Ni doping in CeCoIn5 increases carrier density linearly as electron doping while suppressing anomalous enhancements in the Hall coefficient near the upper critical field and above Tc.
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Velocity collapse and non-conformal spiral phase in the sawtooth spin chain
Embedding the sawtooth limit in a zigzag ladder of two coupled SU(2)_1 CFTs with extreme velocity ratio cancels the leading staggered interaction, leaving a marginal twist that collapses the apical spin velocity and causes energy-scale collapse independent of spatial correlation length.
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Topological Kondo Insulator from Spin Loop Currents
Non-local interactions induce quantum-geometry-driven spin loop currents that lift degeneracies and open a full gap, realizing a topological Kondo insulator in MoTe2/WSe2 at ν=2.
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Boundary-dependent topological degeneracy in an Ising chain
An alternative open boundary condition in the Ising chain maps the system to two Kitaev chains, switching the topological degeneracy due to gauge dependence of the SSH winding number.
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Carrier-doping effect and anomalous transport properties in Ni-doped CeCoIn5 investigated by Hall resistivity measurements
Ni doping in CeCoIn5 increases carrier density linearly as electron doping while suppressing anomalous enhancements in the Hall coefficient near the upper critical field and above Tc.