Gespeichert in:
Bibliographische Detailangaben
Hauptverfasser: Cohen, Peter, Dell, Justine, González, Oscar E., Khunger, Simran, Kwan, Chung-Hang, Miller, Steven J., Shashkov, Alexander, Reina, Alicia Smith, Sprunger, Carsten, Triantafillou, Nicholas, Truong, Nhi, Van Peski, Roger, Willis, Stephen
Format: Preprint
Veröffentlicht: 2022
Schlagworte:
Online-Zugang:https://arxiv.org/abs/2208.02625
Tags: Tag hinzufügen
Keine Tags, Fügen Sie den ersten Tag hinzu!
_version_ 1866908837846450176
author Cohen, Peter
Dell, Justine
González, Oscar E.
Khunger, Simran
Kwan, Chung-Hang
Miller, Steven J.
Shashkov, Alexander
Reina, Alicia Smith
Sprunger, Carsten
Triantafillou, Nicholas
Truong, Nhi
Van Peski, Roger
Willis, Stephen
author_facet Cohen, Peter
Dell, Justine
González, Oscar E.
Khunger, Simran
Kwan, Chung-Hang
Miller, Steven J.
Shashkov, Alexander
Reina, Alicia Smith
Sprunger, Carsten
Triantafillou, Nicholas
Truong, Nhi
Van Peski, Roger
Willis, Stephen
contents We study the $n^{\rm th}$ centered moments of the $1$-level density for the low-lying zeros of $L$-functions attached to holomorphic cuspidal newforms of large prime level and fixed weight. Assuming the Generalized Riemann Hypotheses, we compute this statistic for any $n\ge 1$ and for all test functions whose Fourier transforms are supported in $\left(-2/n, \, 2/n\right)$. This is believed to be the natural limit of the current technology. Our work significantly extends beyond the trivial range $(-1/n, \, 1/n)$ and surpasses the previous record of $(-1/(n-1),\, 1/(n-1))$ whenever $n>2$. The Katz-Sarnak philosophy predicts that the aforementioned statistic can be modeled by the corresponding statistic for the eigenvalues of random orthogonal matrices. We prove that this is the case for test functions with Fourier support contained in $(-2/n,\, 2/n)$. The main technical innovation is a tractable vantage to evaluate the combinatorial zoo of terms, similar to the work of Conrey-Snaith and Mason-Snaith. As an application, our work provides better bounds on the order of vanishing at the central point for the $L$-functions in our family.
format Preprint
id arxiv_https___arxiv_org_abs_2208_02625
institution arXiv
publishDate 2022
record_format arxiv
spellingShingle On the moments of one-level densities in families of holomorphic cusp forms in the level aspect
Cohen, Peter
Dell, Justine
González, Oscar E.
Khunger, Simran
Kwan, Chung-Hang
Miller, Steven J.
Shashkov, Alexander
Reina, Alicia Smith
Sprunger, Carsten
Triantafillou, Nicholas
Truong, Nhi
Van Peski, Roger
Willis, Stephen
Number Theory
We study the $n^{\rm th}$ centered moments of the $1$-level density for the low-lying zeros of $L$-functions attached to holomorphic cuspidal newforms of large prime level and fixed weight. Assuming the Generalized Riemann Hypotheses, we compute this statistic for any $n\ge 1$ and for all test functions whose Fourier transforms are supported in $\left(-2/n, \, 2/n\right)$. This is believed to be the natural limit of the current technology. Our work significantly extends beyond the trivial range $(-1/n, \, 1/n)$ and surpasses the previous record of $(-1/(n-1),\, 1/(n-1))$ whenever $n>2$. The Katz-Sarnak philosophy predicts that the aforementioned statistic can be modeled by the corresponding statistic for the eigenvalues of random orthogonal matrices. We prove that this is the case for test functions with Fourier support contained in $(-2/n,\, 2/n)$. The main technical innovation is a tractable vantage to evaluate the combinatorial zoo of terms, similar to the work of Conrey-Snaith and Mason-Snaith. As an application, our work provides better bounds on the order of vanishing at the central point for the $L$-functions in our family.
title On the moments of one-level densities in families of holomorphic cusp forms in the level aspect
topic Number Theory
url https://arxiv.org/abs/2208.02625