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Involution factorizations of Ewens random permutations
by
Charles Burnette
in
05a05, 05a16, 60c05
/ combinatorics
/ probability
2025
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Involution factorizations of Ewens random permutations
by
Charles Burnette
in
05a05, 05a16, 60c05
/ combinatorics
/ probability
2025
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Journal Article
Involution factorizations of Ewens random permutations
2025
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Overview
An involution is a bijection that is its own inverse. Given a permutation $σ$ of $[n],$ let $\\mathsf{invol}(σ)$ denote the number of ways $σ$ can be expressed as a composition of two involutions of $[n].$ We prove that the statistic $\\mathsf{invol}$ is asymptotically lognormal when the symmetric groups $\\mathfrak{S}_n$ are each equipped with Ewens Sampling Formula probability measures of some fixed positive parameter $θ.$ This paper strengthens and generalizes previously determined results about the limiting distribution of $\\log(\\mathsf{invol})$ for uniform random permutations, i.e. the specific case of $θ= 1$. We also investigate the first two moments of $\\mathsf{invol}$ itself, detailing the phase transition in asymptotic behavior at $θ= 1,$ and provide a functional refinement and a convergence rate for the Gaussian limit law which is demonstrably optimal when $θ= 1.$
Publisher
Discrete Mathematics & Theoretical Computer Science
Subject
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