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Higher dimensional dedekind sums
In this paper we will study the number-theoretical properties of the expression v1 nkal rcka,, d(p; a I . . . . . an) = ( 1) n/2 ~ cot cot (1) k=l P P and of related finite trigonometric sums. In Eq. (I), p is a positive integer, a~ . . . . . a, are integers prime to p, and n is even (for n odd the sum is clearly equal to zero).
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Dedekind sums for a fuchsian group, II [PDF]
In [1] we derived a generalization of Kronecker’s first limit formula. Our generalization was a limit formula for the Eisenstein series for an arbitrary cusp of a Fuchsian group Γ of the first kind operating on the complex upper half-plane H. In that work, we introduced Dedekind sums associated to the principal congruence subgroups Γ(N) of the elliptic
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This study introduces a method to integrate extreme climate event indices into biodiversity assessment strategies, using South Africa as a case study. By assessing Key Biodiversity Areas (KBAs) and extreme climate projections from 2015 to 2036, the findings highlight significant gaps between areas officially designated as climate‐threatened and those ...
Amina Ly, Noah S. Diffenbaugh
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Asymptotic Formulas and Generalized Dedekind Sums [PDF]
We find asymptotic formulas as $n\to\infty$ for the coefficients $a(r\hbox{,}\,n)$ defined by $$ \prod_{\nu=1}^\infty\,(1-x^\nu)^{-\nu^r} =\sum_{n=0}^\infty a(r\hbox{,}\,n)x^n\hbox{.} $$ (The case $r=1$ gives the number of plane partitions of $n$.) Generalized Dedekind sums occur naturally and are studied using the Finite Fourier Transform. The methods
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Chebotarev's theorem for cyclic groups of order pq$pq$ and an uncertainty principle
Abstract Let p$p$ be a prime number and ζp$\zeta _p$ a primitive p$p$th root of unity. Chebotarev's theorem states that every square submatrix of the p×p$p \times p$ matrix (ζpij)i,j=0p−1$(\zeta _p^{ij})_{i,j=0}^{p-1}$ is nonsingular. In this paper, we prove the same for principal submatrices of (ζnij)i,j=0n−1$(\zeta _n^{ij})_{i,j=0}^{n-1}$, when n=pr ...
Maria Loukaki
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The shift‐homological spectrum and parametrising kernels of rank functions
Abstract For any compactly generated triangulated category, we introduce two topological spaces, the shift spectrum and the shift‐homological spectrum. We use them to parametrise a family of thick subcategories of the compact objects, which we call radical.
Isaac Bird +2 more
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Periodic points of rational functions over finite fields
Abstract For q$q$ a prime power and ϕ$\phi$ a rational function with coefficients in Fq$\mathbb {F}_q$, let p(q,ϕ)$p(q,\phi)$ be the proportion of P1Fq$\mathbb {P}^1\left(\mathbb {F}_q\right)$ that is periodic with respect to ϕ$\phi$. Furthermore, if d$d$ is a positive integer, let Qd$Q_d$ be the set of prime powers coprime to d!$d!$ and let P(d,q ...
Derek Garton
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On the Mean Value of Dedekind Sums
For integer \(m\geq 1\) define \(f_m(k)\) be the Dirichlet series \[ \sum^\infty_{k=1} {f_m(k)\over k^s}=2 {\zeta^2(2m) \over\zeta (4m)}{\zeta (s+4m-1)\over \zeta^2(s+2m)} \zeta(s), \] and let \(s(h,k)\) denote the classical Dedekind sum. If \(\sum'\) indicates that \((h,k)=1\), the author derives the asymptotic formula \[ {\sum'}^k_{h=1} s^{2m}(h,k ...
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A Certain Generalized Dedekind Sum
The author defines two generalizations of the classical Dedekind sums which involve powers of roots of unity and the greatest integer function. (These are also analogues of sums studied by \textit{L. Carlitz} [Fibonacci Q. 15, 78-84 (1977; Zbl 0362.10004)].) His goal is to evaluate these sums and give reciprocity relations for them.
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This paper collects together a number of results concerning the classical Dedekind sum and the so-called Hardy sums which are of a similar character. One of the many results stated in the paper gives simple explicit formulas for the Hardy sums in terms of Dedekind sums.
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