Resistivity scaling and critical dynamics of fully frustrated Josephson-junction arrays with on-site dissipation
arXiv:cond-mat/0502190 · doi:10.1103/PhysRevB.71.094521
Abstract
We study the scaling behavior and critical dynamics of the resistive transition in Josephson-junction arrays, at f=1/2 flux quantum per plaquette, by numerical simulation of an on-site dissipation model for the dynamics. The results are compared with recent simulations using the resistively-shunted-junction model. For both models, we find that the resistivity scaling and critical dynamics of the phases are well described by the same critical temperature as for the chiral (vortex-lattice) transition, with a power-law divergent correlation length. The behavior is consistent with the single transition scenario, where phase and chiral variables order at the same temperature, but with different dynamic exponents z for phase coherence and chiral order.
17 pages, 13 figures, to appear in Phys. Rev. B
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