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A characterization of strong percolation via disconnection

Hugo Duminil-Copin, Subhajit Goswami, Pierre-François Rodriguez, Franco Severo, Augusto Teixeira

15/8/23 Published in : arXiv:2308.07920

We consider a percolation model, the vacant set \mathcal{V}^u of random interlacements on \mathbb{Z}^d, d \geq 3, in the regime of parameters u>0 in which it is strongly percolative. By definition, such values of u pinpoint a robust subset of the super-critical phase, with strong quantitative controls on large local clusters. In the present work, we give a new charaterization of this regime in terms of a single property, monotone in u. involving a disconnection estimate for \mathcal{V}^u. A key aspect is to exhibit a gluing property for large local clusters from this information alone, and a major challenge in this undertaking is the fact that the conditional law of \mathcal{V}^u exhibits degeneracies. As one of the main novelties of this work, the gluing technique we develop to merge large clusters accounts for such effects. In particular, our methods do not rely on the widely assumed finite-energy property, which the set \mathcal{V}^u does not possess. The charaterization we derive plays a decisive role in the proof of a lasting conjecture regarding the coincidence of various critical parameters naturally associated to \mathcal{V}^u in a companion article.

Entire article

Phase I & II research project(s)

  • Statistical Mechanics

Phase III direction(s)

  • Statistical Mechanics and Random Structures
  • Spectral gap problems in non-perturbative quantum theory

Phase transition for the vacant set of random walk and random interlacements

Probe thermometry with continuous measurements

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  • Co-leading house


The National Centres of Competence in Research (NCCRs) are a funding scheme of the Swiss National Science Foundation

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