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The Component Graph of the Uniform Spanning Forest: Transitions in Dimensions $9,10,11,\ldots$

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arxiv 1702.05780 v2 pith:CFZL5MQB submitted 2017-02-19 math.PR math-phmath.MP

classification math.PRmath-phmath.MP
keywords componentgraphspanningubiquitousuniformchangesdimensiondimensions
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abstract

We prove that the uniform spanning forests of $\mathbb{Z}^d$ and $\mathbb{Z}^{\ell}$ have qualitatively different connectivity properties whenever $\ell >d \geq 4$. In particular, we consider the graph formed by contracting each tree of the uniform spanning forest down to a single vertex, which we call the component graph. We introduce the notion of ubiquitous subgraphs and show that the set of ubiquitous subgraphs of the component graph changes whenever the dimension changes and is above $8$. To separate dimensions $5,6,7,$ and $8$, we prove a similar result concerning ubiquitous subhypergraphs in the component hypergraph. Our result sharpens a theorem of Benjamini, Kesten, Peres, and Schramm, who proved that the diameter of the component graph increases by one every time the dimension increases by four.

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  1. Critical long-range percolation II: Low effective dimension

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    In the long-range low-dimensional regime of percolation, the cluster volume tail and k-point functions are determined up to constants, yielding the hyperscaling identities delta=(d+alpha)/(d-alpha) and d_f=(d+alpha)/2.

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