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Periodic vanishings of the Legendre-17 signed partition numbers

Taylor Daniels

Abstract

For $f : \mathbb{N} \to \{0,\pm 1\}$ the $f$-signed partition numbers $\mathfrak{p}(n,f)$ are defined to be the weighted partition sums \[ \mathfrak{p}(n,f) = \sum_{\substack{x_{1}+\cdots+x_{k} = n \\ x_{1} \geq \cdots \geq x_{k} > 0 \\ k \geq 1}} f(x_{1})f(x_{2})\cdots f(x_{k}). \] For prime $p > 2$, let $(\frac{\cdot}{p})$ denote the Legendre symbol modulo $p$. The first half of this paper derives Rademacher-style series formulae for the quantities $\mathfrak{p}(n,\pm(\frac{\cdot}{p}))$ for $p < 24$ satisfying $p \equiv 1 \pmod{4}$ (that is, for $p=5,13,17$), and the extensions to general $p \equiv 1 \pmod{4}$ are made apparent in our derivations. In the second half of this paper, the series formulae for $\mathfrak{p}(n,\pm(\frac{\cdot}{17}))$, as well as various properties of Dedekind sums and their "character-twisted" analogues, are used to establish that these two quantities are identically zero on certain (mod $34$)-arithmetic progressions.

Periodic vanishings of the Legendre-17 signed partition numbers

Abstract

For the -signed partition numbers are defined to be the weighted partition sums For prime , let denote the Legendre symbol modulo . The first half of this paper derives Rademacher-style series formulae for the quantities for satisfying (that is, for ), and the extensions to general are made apparent in our derivations. In the second half of this paper, the series formulae for , as well as various properties of Dedekind sums and their "character-twisted" analogues, are used to establish that these two quantities are identically zero on certain (mod )-arithmetic progressions.
Paper Structure (1 section, 3 equations)

This paper contains 1 section, 3 equations.

Table of Contents

  1. Introduction