Zero-temperature criticality in the two-dimensional gauge glass model
arXiv:cond-mat/0412415 · doi:10.1103/PhysRevLett.94.207204
Abstract
The zero-temperature critical state of the two-dimensional gauge glass model is investigated. It is found that low-energy vortex configurations afford a simple description in terms of gapless, weakly interacting vortex-antivortex pair excitations. A linear dielectric screening calculation is presented in a renormalization group setting that yields a power-law decay of spin-wave stiffness with distance. These properties are in agreement with low-temperature specific heat and spin-glass susceptibility data obtained in large-scale multi-canonical Monte Carlo simulations.
4 pages, 4 figures
References in corpus (10)
- Current--Voltage Characteristics of Two--Dimensional Vortex Glass Models
- Vortex statistics in a disordered two-dimensional XY model
- Glassy Vortex State in a Two-Dimensional Disordered XY-Model
- ABSENCE OF REENTRANCE IN THE TWO-DIMENSIONAL XY-MODEL WITH RANDOM PHASE SHIFT
- Domain Wall Renormalization Group Study of XY Model with Quenched Random Phase Shifts
- Phase Transition in the Two-Dimensional Gauge Glass
- Finite-temperature resistive transition in the two-dimensional XY gauge glass model
- On the existence of a finite-temperature transition in the two-dimensional gauge glass
- Phase Transitions in the Two-Dimensional Random Gauge XY Model
- Zero Temperature Glass Transition in the Two-Dimensional Gauge Glass Model
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