Product-Form Distribution and Reversibility of Inhomogeneous Symmetric Simple Exclusion Process with Open Boundaries
Marina V. Yashina, Alexander G. Tatashev

TL;DR
This paper analyzes an inhomogeneous symmetric simple exclusion process with open boundaries, deriving its stationary distribution, proving reversibility under certain conditions, and relating it to queueing system probabilities.
Contribution
It provides the explicit product-form stationary distribution and reversibility conditions for an inhomogeneous exclusion process with open boundaries.
Findings
Stationary distribution is multiplicative and site-independent in probability.
Reversibility is proved under equal arrival and departure rates for each particle type.
Arrival rates and average sojourn times are explicitly calculated.
Abstract
We consider an inhomogeneous symmetric simple exclusion process on a one-dimensional lattice with open boundary conditions. The time scale is continuous. Particles of different types arrive to the utmost left and the utmost right site. If a particle is in a site that is neither the utmost left site nor the utmost right site, then the particle moves onto one site to the left or to the right. If a particle is either in the utmost left site or the utmost right site, then the particle leaves the system or moves onto one cell to the right or to the left, respectively. An arrival or a transfer of particle is possible only to a vacant site. The rate of arrival, exit or movement of a particle depends on its type and does not depend on the site from that the particle arrives or exits and on the direction the movement. The stationary distribution of the system states probabilities has been found.…
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Taxonomy
TopicsStochastic processes and statistical mechanics · Theoretical and Computational Physics · Random Matrices and Applications
