Sharp asymptotics for Fredholm pfaffians related to interacting particle systems and random matrices
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Publication:2024499
DOI10.1214/20-EJP512zbMATH Open1462.60007arXiv1905.03754MaRDI QIDQ2024499
Author name not available (Why is that?)
Publication date: 4 May 2021
Published in: (Search for Journal in Brave)
Abstract: It has been known since the pioneering paper of Mark Kac, that the asymptotics of Fredholm determinants can be studied using probabilistic methods. We demonstrate the efficacy of Kac' approach by studying the Fredholm Pfaffian describing the statistics of both non-Hermitian random matrices and annihilating Brownian motions. Namely, we establish the following two results. Firstly, let be the largest real eigenvalue of a random matrix with independent entries (the `real Ginibre matrix'). Consider the limiting distribution of the shifted maximal real eigenvalue . Then [ lim_{L
ightarrow infty} e^{frac{1}{2sqrt{2pi}}zetaleft(frac{3}{2}
ight)L} mathbb{P}left(lambda_{max}<-L
ight) =e^{C_e}, ] where is the Riemann zeta-function and [ C_e=frac{1}{2}log 2+frac{1}{4pi}sum_{n=1}^{infty}frac{1}{n} left(-pi+sum_{m=1}^{n-1}frac{1}{sqrt{m(n-m)}}
ight). ] Secondly, let be the position of the rightmost particle at time for a system of annihilating Brownian motions (ABM's) started from every point of . Then [ lim_{L
ightarrow infty} e^{frac{1}{2sqrt{2pi}}zetaleft(frac{3}{2}
ight)L} mathbb{P}left(frac{X_{t}^{(max)}}{sqrt{4t}}<-L
ight) =e^{C_e}. ] These statements are a sharp counterpart of our previous results improved by computing the terms of order in the asymptotic expansion of the corresponding Fredholm Pfaffian.
Full work available at URL: https://arxiv.org/abs/1905.03754
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