On an indivisibility version of Iizuka's conjecture

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Main Authors: R, Muneeswaran, Krishnamoorthy, Srilakshmi, Bhakta, Subham
Format: Preprint
Published: 2024
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author R, Muneeswaran
Krishnamoorthy, Srilakshmi
Bhakta, Subham
author_facet R, Muneeswaran
Krishnamoorthy, Srilakshmi
Bhakta, Subham
contents Iizuka's conjecture predicts that, given $m \in \mathbb{N}$ and a prime $p$, there exists infinitely many integers $n$ such that the class numbers of \textit{all} of the following quadratic number fields, \[ \mathbb{Q}(\sqrt{n}),\ \mathbb{Q}(\sqrt{n+1}),\ \ldots,\ \mathbb{Q}(\sqrt{n+m}), \] are divisible by $p$. In this article, given $k$ and $m$, we study the proportion of $n$ such that the class numbers of \textit{none} of the successive fields \[ \mathbb{Q}(\sqrt{n}),\ \mathbb{Q}(\sqrt{n+1}),\ \ldots,\ \mathbb{Q}(\sqrt{n+m}), \] are divisible by \( 3^k \). Moreover, we study the proportion of imaginary biquadratic fields whose class numbers are not divisible by $3$.
format Preprint
id arxiv_https___arxiv_org_abs_2411_08772
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle On an indivisibility version of Iizuka's conjecture
R, Muneeswaran
Krishnamoorthy, Srilakshmi
Bhakta, Subham
Number Theory
Iizuka's conjecture predicts that, given $m \in \mathbb{N}$ and a prime $p$, there exists infinitely many integers $n$ such that the class numbers of \textit{all} of the following quadratic number fields, \[ \mathbb{Q}(\sqrt{n}),\ \mathbb{Q}(\sqrt{n+1}),\ \ldots,\ \mathbb{Q}(\sqrt{n+m}), \] are divisible by $p$. In this article, given $k$ and $m$, we study the proportion of $n$ such that the class numbers of \textit{none} of the successive fields \[ \mathbb{Q}(\sqrt{n}),\ \mathbb{Q}(\sqrt{n+1}),\ \ldots,\ \mathbb{Q}(\sqrt{n+m}), \] are divisible by \( 3^k \). Moreover, we study the proportion of imaginary biquadratic fields whose class numbers are not divisible by $3$.
title On an indivisibility version of Iizuka's conjecture
topic Number Theory
url https://arxiv.org/abs/2411.08772