Glassy dynamics near zero temperature
arXiv:cond-mat/0004438 · doi:10.1103/PhysRevE.62.R7567
Abstract
We numerically study finite-dimensional spin glasses at low and zero temperature, finding evidences for (i) strong time/space heterogeneities, (ii) spontaneous time scale separation and (iii) power law distributions of flipping times. Using zero temperature dynamics we study blocking, clustering and persistence phenomena.
References in corpus (7)
- Theory of Phase Ordering Kinetics
- Exact first-passage exponents of 1D domain growth: relation to a reaction diffusion model
- Replica Symmetry Breaking in Short-Range Spin Glasses: Theoretical Foundations and Numerical Evidences
- Quasi-equilibrium interpretation of aging dynamics
- Blocking and Persistence in the Zero-Temperature Dynamics of Homogeneous and Disordered Ising Models
- Monte Carlo Studies of Ising Spin Glasses and Random Field Systems
- Time scale separation and heterogeneous off-equilibrium dynamics in spin models over random graphs
Cited by in corpus (27)
- Heterogeneous aging in spin glasses
- Spatially heterogeneous ages in glassy dynamics
- Minimal vertex covers on finite-connectivity random graphs - a hard-sphere lattice-gas picture
- Statistical mechanics of the vertex-cover problem
- A microscopic description of the aging dynamics: fluctuation-dissipation relations, effective temperature and heterogeneities
- Statics and Dynamics of the 10-state mean-field Potts glass model: A Monte Carlo study
- Growing dynamical length, scaling and heterogeneities in the 3d Edwards-Anderson model
- Dynamics of dilute disordered models: a solvable case
- Statics and dynamics of the ten-state nearest-neighbor Potts glass on the simple-cubic lattice
- Signature of the Ground-State Topology in the Low-Temperature Dynamics of Spin Glasses
- Aging dynamics of heterogeneous spin models
- Ground-state topology of the Edwards-Anderson +/-J spin glass model
- Strong Dynamical Heterogeneities in the Violation of the Fluctuation-Dissipation Theorem in Spin Glasses
- Influence of the Ground-State Topology on the Domain-Wall Energy in the Edwards-Anderson +/- J Spin Glass Model
- Heterogeneities in systems with quenched disorder
- Domain growth within the backbone of the three-dimensional Edwards-Anderson spin glass
- Message passing and Monte Carlo algorithms: connecting fixed points with metastable states
- Aging in the three-dimensional Random Field Ising Model
- Backbone structure of the Edwards-Anderson spin-glass model
- Local overlaps, heterogeneities and the local fluctuation dissipation relations
- Temperature dependence of fast relaxation processes in amorphous materials
- Nonequilibrium dynamics of the three-dimensional Edwards-Anderson spin-glass model with Gaussian couplings: Strong heterogeneities and the backbone picture
- Dynamical heterogeneities as fingerprints of a backbone structure in Potts models
- Self-Sustained Clusters as Drivers of Computational Hardness in -spin Models
- The Effect of Pure State Structure on Nonequilibrium Dynamics
- Slow Spin Dynamics and Self-Sustained Clusters in Sparsely Connected Systems
- Changing the universality class of the three-dimensional Edwards-Anderson spin-glass model by selective bond dilution