Exactly solvable models through the generalized empty interval method, for multi-species interactions
arXiv:cond-mat/0207175 · doi:10.1140/epjb/e2003-00044-4
Abstract
Multi-species reaction-diffusion systems, with nearest-neighbor interaction on a one-dimensional lattice are considered. Necessary and sufficient constraints on the interaction rates are obtained, that guarantee the closedness of the time evolution equation for 's, the expectation value of the product of certain linear combination of the number operators on consecutive sites at time . The constraints are solved for the single-species left-right-symmetric systems. Also, examples of multi-species system for which the evolution equations of 's are closed, are given.
18 pages, LaTeX2e, no figures
Cited by in corpus (9)
- Applications of Field-Theoretic Renormalization Group Methods to Reaction-Diffusion Problems
- Models solvable through the empty-interval method
- Class of solvable reaction-diffusion processes on Cayley tree
- Exactly solvable models through the generalized empty interval method: multi-species and more-than-two-site interactions
- Exactly solvable reaction diffusion models on a Cayley tree
- Static- and dynamical-phase transition in multidimensional voting models on continua
- Perturbative calculation of one-point functions of one-dimensional single-species reaction-diffusion systems
- Autonomous models solvable through the full interval method
- The spectrum and the phase transition of models solvable through the full interval method