p-Adic Numbers, Ultrametric Analysis and Applications
p-Adic Numbers, Ultrametric Analysis and Applications is an international peer-reviewed journal, which contains original articles, short communications, and reviews on progress in various areas of pure and applied mathematics related to p-adic, adelic, and ultrametric methods, including: mathematical physics, quantum theory, string theory, cosmology, nanoscience, life sciences; mathematical analysis, number theory, algebraic geometry, non-Archimedean and noncommutative geometry, theory of finite fields and rings, representation theory, functional analysis, and graph theory; classical and quantum information, computer science, cryptography, image analysis, cognitive models, neural networks, and bioinformatics; complex systems, dynamical systems, stochastic processes, hierarchy structures, and modeling, control theory, economics, and sociology; mesoscopic and nano systems, disordered and chaotic systems, spin glasses, macromolecules, molecular dynamics, biopolymers, genomics and biology; and other related fields. The journal welcomes manuscripts from all countries.
PEER REVIEW AND EDITORIAL POLICY
The journal follows the Springer Nature Peer Review Policy, Process and Guidance, Springer Nature Journal Editors' Code of Conduct, and COPE's Ethical Guidelines for Peer-reviewers.
Approximately 10% of the manuscripts are rejected without review based on formal criteria as they do not comply with the submission guidelines. Each manuscript is assigned to at least one peer reviewer. The journal follows a single-blind reviewing procedure. The period from submission to the first decision is up to 6 months. The approximate rejection rate is 15%. The final decision on the acceptance of a manuscript for publication is made by the Meeting of the most active members of the Editorial Board.
If Editors, including the Editor-in-Chief, publish in the journal, they do not participate in the decision-making process for manuscripts where they are listed as co-authors.
Special issues published in the journal follow the same procedures as all other issues. If not stated otherwise, special issues are prepared by the members of the editorial board without guest editors.
Current Issue
Vol 11, No 4 (2019)
- Year: 2019
- Articles: 8
- URL: https://journals.rcsi.science/2070-0466/issue/view/12541
Research Articles
p-Adic Zeroes of the Kubota-Leopoldt Zeta-Function
Abstract
In this paper we establish why the p-adic zeta function has a Dirichlet series expansion. We compute an improved expansion, which allows us to express it as a power-series modulo pn. Using this expansion, we compute all the zeros of Lp(s, χωj) for those quadratic characters χ of conductor < 200. For the calculation we use a PARI-GP Program.
Hysteresis, Unconscious and Economics
Abstract
Considering the main aspects of a previous formal model of the relationships unconscious-conscious based on the representation of mental entities by m-adic numbers through hysteresis phenomenology, a pattern which has been then used to work out a possible psychoanalytic model of human consciousness as well as to argue on a simple derivations of p-adic Weber-Fechner laws of psychophysics, we now carry on along this formal analysis putting forward some remarks about the possible applications and consequences of this model of human psyche in regard to central themes of economics and sociology.
The Uniform Distribution of Sequences Generated by Iterated Polynomials
Abstract
In the paper we show that given a polynomial f over ℤ = 0, ±1, ±2, ..., deg f ⩾ 2, the sequence x, f(x), f(f(x)) = f(2)(x), ..., where x is m-adic integer, produces a uniformly distributed set of points in every real unit hypercube under a natural map of the space ℤm of m-adic integers onto unit real interval. Namely, let m, s ∈ ℕ = {1, 2, 3, ...}, m > 1, let κn have a discrete uniform distribution on the set {0, 1, ..., mn - 1. We prove that with n tending to infinity random vectors
On the Nevanlinna-Cartan Second Main Theorem for non-Archimedean Holomorphic Curves
Abstract
Recenty, J. M. Anderson and A. Hinkkanen ([2]) introduced the integrated reduced counting functions for holomorphic curves and proved an improved version of second main theorem for holomorphic curves with integrated reduced counting functions in the complex case. In this paper, we will prove a version of second main theorem for non-Archimedean holomorphic curves intersecting hyperplanes in general position with integrated reduced counting functions.
Fourier Transform of Dini-Lipschitz Functions on the Field of p-Adic Numbers
Abstract
Let ℚp be the field of p-adic numbers, a function f(x) belongs to the the Lebesgue class Lρ(ℚp), 1 ρ ≤ 2, and let \(\hat{f}(\xi)\) be the Fourier transform of f. In this paper we give an answer to the next problem: if the function f belongs to the Dini-Lipschitz class DLip(α, β, ρ; ℚp), α > 0, β ∈ ℝ, then for which values of r we can guarantee that \(\hat{f} \in {L^r}(\mathbb{Q}_p)\)? The result is an analogue of one classical theorem of E. Titchmarsh about the Fourier transform of functions from the Lipschitz classes on ℝ.
Non Periodic p-Adic Generalized Gibbs Measure for Ising Model
Abstract
In this paper we are aiming to study a new type of p-adic generalized Gibbs measures. We introduce two classes of p-adic generalized Gibbs measures for Ising model: p-adic (k0)-translational invariant and (k0)-periodic generalized Gibbs measures. It is proven that if k0 = 2,3 then the introduced classes are not empty.
Complete Integrability of Quantum and Classical Dynamical Systems
Abstract
It is proved that the Schrödinger equation with any self-adjoint Hamiltonian is unitary equivalent to a set of non-interacting classical harmonic oscillators and in this sense any quantum dynamics is completely integrable. Integrals of motion are presented. A similar statement is proved for classical dynamical systems in terms of Koopman’s approach to dynamical systems. Examples of explicit reduction of quantum and classical dynamics to the family of harmonic oscillators by using direct methods of scattering theory and wave operators are given.