On the existence of a finite-temperature transition in the two-dimensional gauge glass

Abstract

Results from Monte Carlo simulations of the two-dimensional gauge glass supporting a zero-temperature transition are presented. A finite-size scaling analysis of the correlation length shows that the system does not exhibit spin-glass order at finite temperatures. These results are compared to earlier claims of a finite-temperature transition.

4 pages, 2 figures

References in corpus (2)

• Numerical studies of the two- and three-dimensional gauge glass at low temperature
• Phase Transitions in the Two-Dimensional Random Gauge XY Model

Cited by in corpus (12)

• Quadrupolar correlations and spin freezing in S = 1 triangular lattice antiferromagnets
• Dynamical scaling in Ising and vector spin glasses
• Phase transition in site-diluted Josephson junction arrays: A numerical study
• Experimental Study of Positionally Disordered Josephson Junctions Arrays
• Critical properties of the three- and four-dimensional gauge glass
• Dynamic critical behaviors in two-dimensional Josephson junction arrays with positional disorder
• Zero Temperature Glass Transition in the Two-Dimensional Gauge Glass Model
• Zero-temperature transition and correlation-length exponent of the frustrated XY model on a honeycomb lattice
• Dynamics of glass phases in the two-dimensional gauge glass model
• Size dependence of the internal energy in Ising and vector spin glasses
• Phase glass and zero-temperature phase transition in a randomly frustrated two-dimensional quantum rotor model
• Typical versus average helicity modulus in the three-dimensional gauge glass: Understanding the vortex glass phase