Electronic Journal of Probability · 2015 · 50 citations · 18 references
Independent ParticlesEngineeringRandom WalksRandom GraphDiscrete ProbabilityEntropyIntegrable ProbabilityProbability TheoryStochastic PhenomenonDiscrete MathematicsRandom WalkPoisson EquilibriumMathematical Statistical PhysicPoisson BoundaryStochastic Geometry
In this paper we study a random walk in a one-dimensional dynamic random environment consisting of a collection of independent particles performing simple symmetric random walks in a Poisson equilibrium with density $\rho \in (0,\infty)$. At each step the random walk performs a nearest-neighbour jump, moving to the right with probability $p_{\circ}$ when it is on a vacant site and probability $p_{\bullet}$ when it is on an occupied site. Assuming that $p_\circ \in (0,1)$ and $p_\bullet \neq \tfrac12$, we show that the position of the random walk satisfies a strong law of large numbers, a functional central limit theorem and a large deviation bound, provided $\rho$ is large enough. The proof is based on the construction of a renewal structure together with a multiscale renormalisation argument.
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Front propagation into unstable states
W. vanSaarloos · Physics Reports · 2003 · 947 citations · Full text
Diffusion with “collisions” between particles
T. E. Harris · Journal of Applied Probability · 1965 · 426 citations
Engineering, Random Walks, Physics +10