Exclusion Sensitivity of Boolean Functions
Erik I. Broman, Christophe Garban, Jeffrey E. Steif

TL;DR
This paper extends noise sensitivity concepts of Boolean functions to exclusion process perturbations, showing equivalences for monotone functions and analyzing percolation's exclusion sensitivity with respect to medium-range dynamics.
Contribution
It introduces a novel framework connecting exclusion process perturbations with classical noise sensitivity and explores their implications for percolation theory.
Findings
Equivalence of noise sensitivity and stability under exclusion and classical noise for monotone functions
Analysis of exclusion sensitivity of critical percolation under medium-range dynamics
Spectral set diffusion of percolation under exclusion processes
Abstract
Recently the study of noise sensitivity and noise stability of Boolean functions has received considerable attention. The purpose of this paper is to extend these notions in a natural way to a different class of perturbations, namely those arising from running the symmetric exclusion process for a short amount of time. In this study, the case of monotone Boolean functions will turn out to be of particular interest. We show that for this class of functions, ordinary noise sensitivity and noise sensitivity with respect to the complete graph exclusion process are equivalent. We also show this equivalence with respect to stability. After obtaining these fairly general results, we study "exclusion sensitivity" of critical percolation in more detail with respect to medium-range dynamics. The exclusion dynamics, due to its conservative nature, is in some sense more physical than the…
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Taxonomy
TopicsStochastic processes and statistical mechanics · Markov Chains and Monte Carlo Methods · Theoretical and Computational Physics
