Lattice-gas models of phase separation: interfaces, phase transitions, and multiphase flow
- 1 October 1994
- journal article
- review article
- Published by American Physical Society (APS) in Reviews of Modern Physics
- Vol. 66 (4) , 1417-1479
- https://doi.org/10.1103/revmodphys.66.1417
Abstract
Momentum-conserving lattice gases are simple, discrete, microscopic models of fluids. This review describes their hydrodynamics, with particular attention given to the derivation of macroscopic constitutive equations from microscopic dynamics. Lattice-gas models of phase separation receive special emphasis. The current understanding of phase transitions in these momentum-conserving models is reviewed; included in this discussion is a summary of the dynamical properties of interfaces. Because the phase-separation models are microscopically time irreversible, interesting questions are raised about their relationship to real fluid mixtures. Simulation of certain complex-fluid problems, such as multiphase flow through porous media and the interaction of phase transitions with hydrodynamics, is illustrated.This publication has 141 references indexed in Scilit:
- Three-dimensional lattice gas with minimal interactionsTransport Theory and Statistical Physics, 1994
- Global invariants and equilibrium states in lattice gasesJournal of Statistical Physics, 1992
- Calculation of the permeability of porous media using hydrodynamic cellular automataJournal of Statistical Physics, 1991
- Staggered diffusivities in lattice gas cellular automataJournal of Statistical Physics, 1991
- Hydrodynamics and time correlation functions for cellular automataJournal of Statistical Physics, 1990
- Viscosity of a phase-separating critical mixtureInternational Journal of Thermophysics, 1989
- Immiscible cellular-automaton fluidsJournal of Statistical Physics, 1988
- Ordered structure and critical phenomena of a semidilute solution of polymer mixtures under shear flowThe Journal of Chemical Physics, 1988
- Cellular automaton fluids 1: Basic theoryJournal of Statistical Physics, 1986
- Non-Newtonian phenomena in simple fluidsPhysics Today, 1984