Condensation in models with factorized and pair-factorized stationary states
arXiv:1505.04109 · doi:10.1088/1742-5468/2015/09/P09005
Abstract
Non-equilibrium real-space condensation is a phenomenon in which a finite fraction of some conserved quantity (mass, particles, etc.) becomes spatially localised. We review two popular stochastic models of hopping particles that lead to condensation and whose stationary states assume a factorized form: the zero-range process and the misanthrope process, and their various modifications. We also introduce a new model - a misanthrope process with parallel dynamics - that exhibits condensation and has a pair-factorized stationary state.
15 pages, 2 figures submitted to J. Stat. Mech
References in corpus (9)
- Interaction driven real-space condensation
- Exchange Driven Growth
- Facilitated Asymmetric Exclusion
- Factorised Steady States in Mass Transport Models on an Arbitrary Graph
- Condensation in the inhomogeneous zero-range process: an interplay between interaction and diffusion disorder
- A dynamical transition and metastability in a size-dependent zero-range process
- Numerical survey of the tunable condensate shape and scaling laws in pair-factorized steady states
- Weakly Non-Equilibrium Properties of Symmetric Inclusion Process with Open Boundaries
- Phase separation transition of reconstituting k-mers in one dimension
Cited by in corpus (4)
- Self-similar behavior of the exchange-driven growth model with product kernel
- Dynamics of condensate formation in stochastic transport with pair-factorized steady states: Nucleation and coarsening time scales
- Emergence of dynamic phases in the presence of different kinds of open boundaries in stochastic transport with short-range interactions
- Condensation in zero-range processes with a fast rate