Random walk driven by the simple exclusion process
arXiv:1404.4187 · doi:10.1214/EJP.v20-3906
Abstract
We prove a strong law of large numbers and an annealed invariance principle for a random walk in a one-dimensional dynamic random environment evolving as the simple exclusion process with jump parameter . First, we establish that if the asymptotic velocity of the walker is non-zero in the limiting case "", where the environment gets fully refreshed between each step of the walker, then, for large enough, the walker still has a non-zero asymptotic velocity in the same direction. Second, we establish that if the walker is transient in the limiting case , then, for small enough but positive, the walker has a non-zero asymptotic velocity in the direction of the transience. These two limiting velocities can sometimes be of opposite sign. In all cases, we show that the fluctuations are normal.
v2 -> v3: Figures and heuristic comments added. Various typos corrected
References in corpus (5)
Cited by in corpus (15)
- Tracer diffusion in crowded narrow channels. Topical review
- Random walk on the simple symmetric exclusion process
- Law of large numbers for random walks on attractive spin-flip dynamics
- Response to a small external force and fluctuations of a passive particle in a one-dimensional diffusive environment
- Analysis of random walks in dynamic random environments via -perturbations
- How can a clairvoyant particle escape the exclusion process?
- Zero-one law for directional transience of one-dimensional random walks in dynamic random environments
- Random walk on a perturbation of the infinitely-fast mixing interchange process
- Law of large numbers for a finite-range random walk in a dynamic random environment with nonuniform mixing
- Variable speed symmetric random walk driven by symmetric exclusion
- Mixing time for the asymmetric simple exclusion process in a random environment
- A Driven Tagged Particle in Symmetric Exclusion Processes with Removals
- Limiting distributions for RWCRE in the sub-ballistic regime and in the critical Gaussian regime
- Absolute Continuity and Weak Uniform Mixing of Random Walk in Dynamic Random Environment
- Law of large numbers for ballistic random walks in dynamic random environments under lateral decoupling