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Jan Moser

Publications and source records attributed to Jan Moser.

At least 73 records · Page 4Linked to original sources

Microscopic interpolation formula for the Riemann $Z(t)$-function and new algorithm for asymptotic solution of some Diophantine equation with Leibnitz coefficients

In this paper we use the values of the Riemann $Z(t)$-function in order to construct certain quasi-orthonormal system of vectors. On this basis we prove a formula for microscopic interpolation of the function $Z(t)$. Simultaneously we have obtained a new algorithm how to construct asymptotic solutions of Diophantine equation with Leibnitz coefficients. This paper is English version of the paper \cite{3} except the Appendix.

math.CA↗

Jacob's ladders, heterogeneous quadrature formulae, big asymmetry and related formulae for the Riemann zeta-function

In this paper we obtain as our main result new class of formulae expressing correlation integrals of the third-order in $Z$ on disconnected sets $\mathring{G}_1(x),\mathring{G}_2(y)$ by means of an autocorrelative sum of the second order in $Z$. Moreover, the distance of the sets $\mathring{G}_1(x),\mathring{G}_2(y)$ from the set of arguments of autocorrelative sum is extremely big, namely $\sim Aπ(T),\ T\to\infty$, where $π(T)$ is the prime-counting function.

math.CA↗

New consequences of the Riemann-Siegel formula and a law of asymptotic equality of signum-areas of $Z(t)$ function

In this paper we obtain the first mean-value theorems for the function $Z(t)$ on some disconnected sets. Next, we obtain a geometric law that controls chaotic behavior of the graph of the function $Z(t)$. This paper is the English version of the papers \cite{8} and \cite{9}, except of the Appendix that connects our results with the theory of Jacob's ladders, namely new third-order formulae have been obtained.

math.CA↗

Riemann's hypothesis and some infinite set of microscopic universes of the Einstein's type in the early period of the evolution of the Universe

We obtain in this paper, as a consequence of the Riemann hypothesis, certain class of topological deformations of the graph of the function $|\zf|$. These are used to construct an infinite set of microscopic universes (on the Planck's scale) of the Einstein type. Dedicated to the 90th anniversary of the A.S. Edington's book \emph{The mathematical theory of relativity}.

physics.gen-ph↗

Distribution of the roots of the equations $Z(t)=0$, $Z'(t)=0$ in the theory of the Riemann zeta-function

Let the symbols $\{γ\},\ \{t_0\};\ t_0\not=γ$ denote the sequences of the roots of the equations $$Z(t)=0,\quad \text{and}\qquad Z'(t)=0,$$ respectively, and $$m(t_0)=\min\{γ"-t_0,t_0-γ'\},\quad Q(t_0)=\max\{γ"-t_0,t_0-γ'\},\quad γ'<t_0<γ",$$ where $γ',γ"$ are the neighboring zeroes. We have proved the following in this paper: on the Riemann hypothesis we have $$\frac{Q(t_0)}{m(t_0)}<t_0\ln^2t_0\ln_2t_0\ln_3t_0,\quad t_0\to\infty.$$ This paper is the English version of the paper of ref. \cite{5}.

math.CA↗

On the roots of the equation $Z'(t)=0$

We have proved in this paper that the Lindel\" of hypothesis generates essential contraction of distances between consecutive odd-order zeros of the function $Z'(t)$. This paper is the translation of the paper \cite{11} into the English except part 8 that we added in order to point out the I. M. Vinogradov' scepticism on possibilities of the method of trigonometric sums.

math.CA↗

Jacob's ladders, their iterations and the new class of integrals connected with parts of the Hardy-Littlewood integral of the function $|ζ(1/2+it)|^2$

In this paper we introduce the iterations of the Jacob's ladder and the new type of integral containing certain product of the factors $|ζ|^2$ corresponding to the components of some disconnected set of the critical line. Next, we obtain an asymptotic formula for this integral, its factorization and, for example, the essential generalization of two Selberg's formulae (1946).

math.CA↗

A minimal integral of the Riemann $Ξ$-function

In this paper we obtain an equilibrium sequence $\{ω_n\}$ for which the following holds true: the areas (measures) of the figures corresponding to the positive and negative parts, respectively, of the graph of the function $Ξ(t),\ t\in[ω_n,ω_{n+1}]$ are equal. Dedicated to the 500th anniversary of rabbi Löw.

math.CA↗