Sign Up to like & get
recommendations!
1
Published in 2019 at "Aequationes mathematicae"
DOI: 10.1007/s00010-019-00647-8
Abstract: The Gram points $$t_n$$tn are defined as solutions of the equation $$\theta (t)=(n-1)\pi $$θ(t)=(n-1)π, $$n\in \mathbb {N}$$n∈N, where $$\theta (t)$$θ(t), $$t>0$$t>0, denotes the increment of the argument of the function $$\pi ^{-s/2}\Gamma \left( \frac{s}{2}\right) $$π-s/2Γs2…
read more here.
Keywords:
application gram;
gram;
gram points;
new application ... See more keywords
Sign Up to like & get
recommendations!
1
Published in 2021 at "Journal of Mathematical Analysis and Applications"
DOI: 10.1016/j.jmaa.2021.125396
Abstract: Abstract In the paper, an analogue of the Gram points used in the theory of the Riemann zeta-function is introduced for zeta-functions of normalized Hecke-eigen cusp forms of weight κ. Some analytic properties of those…
read more here.
Keywords:
points theory;
functions certain;
zeta functions;
cusp forms ... See more keywords
Sign Up to like & get
recommendations!
0
Published in 2025 at "Physica Scripta"
DOI: 10.1088/1402-4896/adf3f1
Abstract: Let Z(t)=ζ12+ite−iθ(t) be the Hardy Z-function, where ζ(σ + it) is the Riemann zeta function and θ(t) is the Riemann-Siegel θ-function. In 1903 Gram introduced Gram’s law (−1)nZ(gn)>0, where gn is the unique solution of…
read more here.
Keywords:
function;
dyson;
new discriminant;
discriminant function ... See more keywords
Sign Up to like & get
recommendations!
2
Published in 2023 at "Mathematics"
DOI: 10.3390/math11030565
Abstract: Let θ(t) denote the increment of the argument of the product π−s/2Γ(s/2) along the segment connecting the points s=1/2 and s=1/2+it, and tn denote the solution of the equation θ(t)=(n−1)π, n=0,1,⋯. The numbers tn are…
read more here.
Keywords:
functions shifts;
gram points;
riemann zeta;
analytic functions ... See more keywords