Comparison of models and lattice-gas simulations for Liesegang patterns
arXiv:0803.3634 · doi:10.1140/epjst/e2008-00755-2
Abstract
For more than a century Liesegang patterns -- self-organized, quasi-periodic structures occurring in diffusion-limited chemical reactions with two components -- have been attracting scientists. The pattern formation can be described by four basic empirical laws. In addition to many experiments, several models have been devised to understand the formation of the bands and rings. Here we review the most important models and complement them with detailed three-dimensional lattice-gas simulations. We show how the mean-field predictions can be reconciled with experimental data by a redefinition of the distances suggested by our lattice-gas simulations.
arXiv comment21 pages, 9 figures, accepted for publication in EPJ Special Topics
References in corpus (11)
- Derivation of the Matalon-Packter law for Liesegang patterns
- Formation of Liesegang patterns: A spinodal decomposition scenario
- Formation of Liesegang Patterns
- The long time behavior of initially separated A+B->0 reaction-diffusion systems with arbitrary diffusion constants
- Liesegang patterns : Studies on the width law
- Cellular automaton model of reaction-transport processes
- Formation of Liesegang patterns: Simulations using a kinetic Ising model
- Guiding-fields for phase-separation: Controlling Liesegang patterns
- Liesegang patterns: Effect of dissociation of the invading electrolyte
- Formation of Liesegang patterns in the presence of an electric field
- Front motion in an type reaction-diffusion process: Effects of an electric field