Exactly solvable models through the empty interval method
arXiv:cond-mat/0105124 · doi:10.1103/PhysRevE.64.056116
Abstract
The most general one dimensional reaction-diffusion model with nearest-neighbor interactions, which is exactly-solvable through the empty interval method, has been introduced. Assuming translationally-invariant initial conditions, the probability that consecutive sites are empty (), has been exactly obtained. In the thermodynamic limit, the large-time behavior of the system has also been investigated. Releasing the translational invariance of the initial conditions, the evolution equation for the probability that consecutive sites, starting from the site , are empty () is obtained. In the thermodynamic limit, the large time behavior of the system is also considered. Finally, the continuum limit of the model is considered, and the empty-interval probability function is obtained.
12 pages, LaTeX2e
References in corpus (1)
Cited by in corpus (13)
- Microscopic structure of travelling wave solutions in a class of stochastic interacting particle systems
- Correlation Functions for Diffusion-Limited Annihilation, A + A -> 0
- Models solvable through the empty-interval method
- Reaction fronts in stochastic exclusion models with three-site interactions
- On the Relation between One-Species Diffusion-Limited Coalescence and Annihilation in One Dimension
- Exactly solvable models through the empty interval method, for more-than-two-site interactions
- Exactly solvable reaction diffusion models on a Cayley tree
- General Reaction-Diffusion Processes With Separable Equations for Correlation Functions
- Static- and dynamical-phase transition in multidimensional voting models on continua
- Autonomous models solvable through the full interval method
- Perturbative calculation of one-point functions of one-dimensional single-species reaction-diffusion systems
- The spectrum and the phase transition of models solvable through the full interval method
- Cluster approximation solution of a two species annihilation model