On generalized Eisenstein series and Ramanujan's formula for periodic zeta-functions
M. Cihat Da\u{g}l{\i}and M\"um\"un Can

TL;DR
This paper develops transformation formulas for generalized Eisenstein series involving periodic functions, leading to new Ramanujan-type formulas for periodic zeta-functions and establishing reciprocity laws for related sums.
Contribution
It introduces new transformation formulas for Eisenstein series with periodic coefficients and derives Ramanujan-like formulas for periodic zeta-functions, extending classical results.
Findings
Derived transformation formulas for Eisenstein series with periodic functions.
Established reciprocity laws for periodic Apostol-Dedekind sums.
Obtained Ramanujan-type formulas for periodic zeta-functions.
Abstract
In this paper, transformation formulas for a large class of Eisenstein series defined by \[ G(z,s;A_{\alpha},B_{\beta};r_{1},r_{2})=\sum\limits_{m,n=-\infty}^{\infty }\ \hspace{-0.19in}^{^{\prime}}\frac{f(\alpha m)f^{\ast}(\beta n)} {((m+r_{1})z+n+r_{2})^{s}},\text{ }\operatorname{Re}(s)>2,\text{ }\operatorname{Im}(z)>0 \] are investigated for , . Here and , are sequences of complex numbers with period , and and , . Appearing in the transformation formulas are generalizations of Dedekind sums involving the periodic Bernoulli function. Reciprocity law is proved for periodic Apostol-Dedekind sum outside of the context of the transformation formulas. Furthermore, transformation…
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