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  1. Exponential function projective synchronization of delayed discrete-time neural networks under saturation-based feedback controller

    In this paper, exponential function projective synchronization (FPS) is examined for discrete-time neural networks (DT-NNs) with time-varying delays...

    K. Sri Raja Priyanka, G. Nagamani in The European Physical Journal Special Topics
    Article 25 June 2024
  2. The Position-Momentum Commutator as a Generalized Function: Resolution of the Apparent Discrepancy Between Continuous and Discrete Bases

    It has been known for many years that the matrix representation of the one-dimensional position-momentum commutator calculated with the position and...

    Timothy B. Boykin in Foundations of Physics
    Article 16 May 2023
  3. Slit-Strip Ising Boundary Conformal Field Theory 1: Discrete and Continuous Function Spaces

    This is the first in a series of articles about recovering the full algebraic structure of a boundary conformal field theory (CFT) from the scaling...

    Taha Ameen, Kalle Kytölä, ... David Radnell in Mathematical Physics, Analysis and Geometry
    Article Open access 05 December 2022
  4. Discrete fracmemristor model with the window function and its application in Logistic map

    In recent years, the mathematical model of memristor has attracted extensive attention from researchers, but the boundary effect of the memristor...

    **aomin Li, Zhen Wang, ... Yang Wang in The European Physical Journal Special Topics
    Article 22 April 2022
  5. Discrete Dissipative Solitons

    The existence of discrete dissipative solitons in a nonlinear lattice is studied. The Ablowitz-Ladik (AL) model with linear dam**, nonlinear cubic...
    F.Kh. Abdullaev in Dissipative Solitons
    Chapter
  6. Connecting Continuous and Discrete Wigner Functions Via GKP Encoding

    Wigner function is an intuitive and powerful tool for understanding quantum systems in terms of functions on phase space. However, it is uniquely...

    Lingxuan Feng, Shunlong Luo in International Journal of Theoretical Physics
    Article 08 February 2024
  7. Discrete Lagrangian Models

    These lectures are devoted to discrete integrable Lagrangian models. A large collection of integrable models is presented in the Lagrangian fashion,...
    Chapter
  8. Discrete Ginzburg-Landau Solitons

    In this chapter, we present a review of recent results concerning dissipative lattices of the Ginzburg-Landau type. Firstly, we study effects such as...
    N.K. Efremidis, D.N. Christodoulides in Dissipative Solitons
    Chapter
  9. Dynamic research of hidden attractors in discrete memristive neural network with trigonometric functions and FPGA implementation

    Compared with the traditional chaotic discrete neural network model with monotonic input–output function, the discrete neural network model with...

    Fei Yu, Si Xu, ... Yi Li in The European Physical Journal Special Topics
    Article 22 April 2024
  10. Discrete Painlevé Equations: A Review

    We present a review of what is current knowledge about discrete Painlevé equations. We start with a historical introduction which explains how the...
    B. Grammaticos, A. Ramani in Discrete Integrable Systems
    Chapter
  11. Generating quantum channels from functions on discrete sets

    Using the recent ability of quantum computers to initialize quantum states rapidly with high fidelity, we use a function operating on a discrete set...

    A. C. Quillen, Nathan Skerrett in Quantum Information Processing
    Article 08 February 2024
  12. One-parameter discrete-time Calogero–Moser system

    Abstract

    We present a new type of integrable one-dimensional many-body systems called a one-parameter Calogero–Moser system. At the discrete...

    U. Jairuk, S. Yoo-Kong in Theoretical and Mathematical Physics
    Article 22 March 2024
  13. Symmetries of Discrete Systems

    In this series of lectures, we review the application of Lie point symmetries, and their generalizations, to the study of difference equations. The...
    Pavel Winternitz in Discrete Integrable Systems
    Chapter
  14. Discrete-time quantum walk-based optimization algorithm

    Optimization is a collection of principles that are used for problem solving in a vast spectrum of disciplines. Given the specifics of a problem and...

    Ioannis Liliopoulos, Georgios D. Varsamis, Ioannis G. Karafyllidis in Quantum Information Processing
    Article 17 January 2024
  15. Discrete Acoustics: ARMA-Modeling of Time Processes, Theory

    Abstract

    In physics, in particular, acoustics, time is traditionally considered as a continuous coordinate. Some exception is signal processing, where...

    Y. I. Bobrovnitskii, I. A. Karpov in Acoustical Physics
    Article 01 December 2023
  16. A discrete basis for celestial holography

    Celestial holography provides a reformulation of scattering amplitudes in four dimensional asymptotically flat spacetimes in terms of conformal...

    Laurent Freidel, Daniele Pranzetti, Ana-Maria Raclariu in Journal of High Energy Physics
    Article Open access 23 February 2024
  17. Matrix Valued Discrete–Continuous Functions with the Prolate Spheroidal Property and Bispectrality

    Classical prolate spheroidal functions play an important role in the study of time-band limiting, scaling limits of random matrices, and the...

    W. Riley Casper, F. Alberto Grünbaum, ... Ignacio Zurrián in Communications in Mathematical Physics
    Article 27 February 2024
  18. Discrete Probability Distributions

    The main properties of discrete probability distributions are presented. Joint, marginal, and conditional distributions are introduced, with the main...
    Chapter 2023
  19. Discrete Differential Geometry. Integrability as Consistency

    We discuss a new geometric approach to discrete integrability coming from discrete differential geometry. A d–dimensional equation is called...
    Alexander I. Bobenko in Discrete Integrable Systems
    Chapter
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