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arXiv · math/0507566

The distribution of the minimum height among pivotal sites in critical two-dimensional percolation

Abstract

Let L_n denote the lowest crossing of the 2n \times 2n square box B(n) centered at the origin for critical site percolation on Z^2 or critical site percolation on the triangular lattice imbedded in Z^2, and denote by Q_n the set of pivotal sites along this crossing. On the event that a pivotal site exists, denote the minimum height that a pivotal site attains above the bottom of B(n) by M_n:= min{m:(x,-n+m)\in Q_n for some -n\le x\le n}. Else, define M_n = 2n. We prove that P(M_n < m) \asymp m/n, uniformly for 1\le m\le n. This relation extends Theorem 1 of van den Berg and Jarai (2003) who handle the corresponding distribution for the lowest crossing in a slightly different context. As a corollary we establish the asymptotic distribution of the minimum height of the set of cut points of a certain chordal SLE_6 in the unit square of C.

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Gregory J. Morrow, Yu Zhang. 2005-07-27. The distribution of the minimum height among pivotal sites in critical two-dimensional percolation. https://arxiv.org/abs/math/0507566

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