{ "id": "2412.09532", "version": "v1", "published": "2024-12-12T18:21:33.000Z", "updated": "2024-12-12T18:21:33.000Z", "title": "Percolation on the stationary distributions of the voter model with stirring", "authors": [ "Jhon Astoquillca", "Réka Szabó", "Daniel Valesin" ], "comment": "24 pages, 1 figure", "categories": [ "math.PR" ], "abstract": "The voter model with stirring is a variant of the classical voter model with two possible opinions (0 and 1) that allows voters to interchange opinions at rate $\\mathsf{v} \\ge 0$. In [Astoquillca,24], it was proved that for this model on $\\mathbb Z^d$ for $d \\ge 3$ and any $\\mathsf{v}$, the set of extremal stationary measures is given by a family $\\{ \\mu_{\\alpha,\\mathsf{v}}: \\alpha \\in [0,1] \\}$, where $\\alpha$ is the density of voters with opinion 1. Sampling a configuration $\\xi$ from $\\mu_{\\alpha, \\mathsf v}$, we study $\\xi$ as a site percolation model on $\\mathbb Z^d$ where the set of occupied sites is the set of voters with opinion 1 in $\\xi$. Letting $\\alpha_c(\\mathsf v)$ be the supremum of all the values of $\\alpha$ for which percolation does not occur $\\mu_{\\alpha, \\mathsf v}$-a.s., we prove that $\\alpha_c(\\mathsf{v})$ converges to $p_c$, the critical density for classical Bernoulli site percolation, as $\\mathsf{v}$ tends to infinity. As a consequence, for $\\mathsf v$ large enough, the probability of the existence of an infinite percolation cluster of 1's exhibits a phase transition in $\\alpha$.", "revisions": [ { "version": "v1", "updated": "2024-12-12T18:21:33.000Z" } ], "analyses": { "subjects": [ "60K35", "82C22", "82B43" ], "keywords": [ "stationary distributions", "extremal stationary measures", "classical bernoulli site percolation", "infinite percolation cluster", "site percolation model" ], "note": { "typesetting": "TeX", "pages": 24, "language": "en", "license": "arXiv", "status": "editable" } } }