An elastic lattice in a random potential
arXiv:cond-mat/9710184 · doi:10.1103/PhysRevB.57.2724
Abstract
Using Monte Carlo simulations, we study the properties of an elastic triangular lattice subject to a random background potential. As the cooling rate is reduced, we observe a rather sudden crossover between two different glass phases, one with exponential decay of correlations, the other with power-law decay. Contrary to predictions derived from continuum models, no evidence of a crossover in the mean-square displacement, B(r), from quadratic growth at small r, to logarithmic growth at large r is found.
7 pages, RevTex, four postscript figures
References in corpus (2)
Cited by in corpus (9)
- Driven Disordered Polymorphic Solids: Phases and Phase Transitions, Dynamical Coexistence and Peak Effect Anomalies
- Macroscopic quantum tunneling and quantum-classical phase transitions of the escape rate in large spin systems
- Probing Disordered Substrates by Imaging the Adsorbate in its Fluid Phase
- Driven Disordered Periodic Media with an Underlying Structural Phase Transition
- Polyhexatic and Polycrystalline States of Skyrmion Lattices
- Dynamics of fluids in quenched-random potential energy landscapes: a mode-coupling theory approach
- Orientational correlations in fluids with quenched disorder
- Dynamics of a noninteracting colloidal fluid in a quenched Gaussian random potential: A time-reversal-symmetry-preserving field-theoretic approach
- Structure of an Elastic Lattice Pinned by Hopping Defects