Flux fractionalization transition in anisotropic antiferromagnets and dimer-loop models
arXiv:2305.07012 · doi:10.1103/PhysRevX.15.011018
Abstract
We demonstrate that the low temperature () properties of a class of anisotropic spin kagome (planar pyrochlore) antiferromagnets on a field-induced -magnetization (-magnetization) plateau are described by a model of fully-packed dimers and loops on the honeycomb (square) lattice, with a temperature-dependent relative fugacity for the dimers. The fully-packed O(1) loop model () and the fully-packed dimer model () limits of this dimer-loop model are found to be separated by a phase transition at a finite and nonzero critical fugacity , with interesting consequences for the spin correlations of the frustrated magnet. The phase has short loops and spin correlations dominated by power-law columnar order (with subdominant dipolar correlations), while the phase has dominant dipolar spin correlations and long loops governed by a power-law distribution of loop sizes. Away from , both phases are described by a long-wavelength Gaussian effective action for a scalar height field that represents the coarse-grained electrostatic potential of fluctuating dipoles. The destruction of power-law columnar spin order below is driven by an unusual {\em flux fractionalization} mechanism, topological in character but quite distinct from the usual Kosterlitz-Thouless mechanism for such transitions: Fractional electric fluxes which are bound into integer values for , proliferate in the phase and destroy power-law columnar order.
arXiv commentrevised and expanded version resubmitted to Phys. Rev
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