Glass transition in the quenched and annealed version of the frustrated lattice gas model
arXiv:cond-mat/0009173 · doi:10.1103/PhysRevE.62.7715
Abstract
In this paper we study the 3d frustrated lattice gas model in the annealed version, where the disorder is allowed to evolve in time with a suitable kinetic constraint. Although the model does not exhibit any thermodynamic transition it shows a diverging peak at some characteristic time in the dynamical non-linear susceptibility, similar to the results on the p-spin model in mean field and Lennard-Jones mixture recently found by Donati et al. [cond-mat/9905433]. Comparing these results to those obtained in the model with quenched interactions, we conclude that the critical behavior of the dynamical susceptibility is reminiscent of the thermodynamic transition present in the quenched model, and signaled by the divergence of the static non-linear susceptibility, suggesting therefore a similar mechanism also in supercooled glass-forming liquids.
8 pages, 14 figures
References in corpus (1)
Cited by in corpus (12)
- Spatially heterogeneous ages in glassy dynamics
- Static and dynamic heterogeneities in a model for irreversible gelation
- Dynamical heterogeneity in a model for permanent gels: Different behavior of dynamical susceptibilities
- Dynamical Correlation Length and Relaxation Processes in a Glass Former
- Spin and density overlaps in the frustrated Ising lattice gas
- Heterogeneities in systems with quenched disorder
- Pacman Percolation and the Glass Transition
- Heterogeneous slow dynamics in a two dimensional doped classical antiferromagnet
- Static and dynamic heterogeneities in irreversible gels and colloidal gelation
- Glass transition in models with controlled frustration
- Relaxation properties in a lattice gas model with asymmetrical particles
- Relaxation functions and dynamical heterogeneities in a model of chemical gel interfering with glass transition