Anomalous Relaxation in the XY Gauge Glass
Beom Jun Kim, M. Y. Choi, S. Ryu, D. Stroud
Abstract
To study relaxation dynamics of the two-dimensional XY gauge glass, we integrate directly the equations of motion and investigate the energy function. As usual, it decays exponentially at high temperatures; at low but non-zero temperatures, it is found to exhibit an algebraic relaxation. We compute the relaxation time τ as a function of the temperature T and find that the rapid increase of τ at low temperatures is well described by τ (T-Tg)-b with Tg = 0.22 0.02 and b = 0.76 0.05, which strongly suggests a finite-temperature glass transition. The decay of vorticity is also examined and explained in terms of a simple heuristic model, which attributes the fast relaxation at high temperatures to annihilation of unpinned vortices.
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