The Carlson‐type zero‐density theorem for the Beurling ζ function

Abstract In a previous paper, we proved a Carlson‐type density theorem for zeroes in the critical strip for the Beurling zeta functions satisfying Axiom A of Knopfmacher. There we needed to invoke two additional conditions: the integrality of the norm (Condition B) and an “average Ramanujan condition” for the arithmetical function counting the number of different Beurling integers of the same norm (Condition G). Here, we implement a new approach of Pintz using the classic zero‐detecting sums coupled with Halász' method, but otherwise arguing in an elementary way avoiding, for example, large sieve‐type inequalities or mean value estimates for Dirichlet polynomials. In this way, we give a new proof of a Carlson‐type density estimate—with explicit constants—avoiding any use of the two additional conditions needed earlier. Therefore, it is seen that the validity of a Carlson‐type density estimate does not depend on any extra assumption—neither on the functional equation present for the Selberg class, nor on growth estimates of coefficients say of “average Ramanujan‐type”—but is a general property presenting itself whenever the analytic continuation is guaranteed by Axiom A.

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Publication Details

Journal
Journal of the London Mathematical Society
Published
2025-03-01
DOI
https://doi.org/10.1112/jlms.70110
Primary Topic
Analytic Number Theory Research
Type
article
Field-Weighted Citation Impact
0.00

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article

The Carlson‐type zero‐density theorem for the Beurling ζ function

Szilárd Gy. Révész
Journal of the London Mathematical Society
Analytic Number Theory Research
article

The Carlson‐type zero‐density theorem for the Beurling ζ function

Szilárd Gy. Révész
article en

Abstract

Abstract In a previous paper, we proved a Carlson‐type density theorem for zeroes in the critical strip for the Beurling zeta functions satisfying Axiom A of Knopfmacher. There we needed to invoke two additional conditions: the integrality of the norm (Condition B) and an “average Ramanujan condition” for the arithmetical function counting the number of different Beurling integers of the same norm (Condition G). Here, we implement a new approach of Pintz using the classic zero‐detecting sums coupled with Halász' method, but otherwise arguing in an elementary way avoiding, for example, large sieve‐type inequalities or mean value estimates for Dirichlet polynomials. In this way, we give a new proof of a Carlson‐type density estimate—with explicit constants—avoiding any use of the two additional conditions needed earlier. Therefore, it is seen that the validity of a Carlson‐type density estimate does not depend on any extra assumption—neither on the functional equation present for the Selberg class, nor on growth estimates of coefficients say of “average Ramanujan‐type”—but is a general property presenting itself whenever the analytic continuation is guaranteed by Axiom A.

Journal of the London Mathematical SocietyVol. 111(3)
HUN-REN Alfréd Rényi Institute of Mathematics (HU)
National Research, Development and Innovation Office
Openalex Percentile: Top 92%
Analytic Number Theory Research
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