{ "id": "1203.5624", "version": "v4", "published": "2012-03-26T10:41:34.000Z", "updated": "2014-08-26T17:01:04.000Z", "title": "On the scaling limit of finite vertex transitive graphs with large diameter", "authors": [ "Itai Benjamini", "Hilary Finucane", "Romain Tessera" ], "comment": "Final version, to appear in Combinatorica", "categories": [ "math.GR", "math.CO", "math.MG" ], "abstract": "Let $(X_n)$ be an unbounded sequence of finite, connected, vertex transitive graphs such that $ |X_n | = o(diam(X_n)^q)$ for some $q>0$. We show that up to taking a subsequence, and after rescaling by the diameter, the sequence $(X_n)$ converges in the Gromov Hausdorff distance to a torus of dimension $ 1$ sufficiently small, we prove, this time by elementary means, that $(X_n)$ converges to a circle.", "revisions": [ { "version": "v3", "updated": "2012-10-08T20:11:57.000Z", "abstract": "Let $(X_n)$ be an unbounded sequence of finite, connected, vertex transitive graphs such that $ |X_n | = o(\\diam(X_n)^q)$ for some $q>0$. We show that up to taking a subsequence, and after rescaling by the diameter, the sequence $(X_n)$ converges in the Gromov Hausdorff distance to a torus of dimension $ 1$ sufficiently small, we prove, this time by elementary means, that $(X_n)$ converges to a circle.", "comment": "We removed the assumption of bounded degree that appeared in the previous version", "journal": null, "doi": null }, { "version": "v4", "updated": "2014-08-26T17:01:04.000Z" } ], "analyses": { "keywords": [ "finite vertex transitive graphs", "large diameter", "scaling limit", "gromov hausdorff distance", "invariant finsler metric" ], "note": { "typesetting": "TeX", "pages": 0, "language": "en", "license": "arXiv", "status": "editable", "adsabs": "2012arXiv1203.5624B" } } }