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Related papers: Rational solutions to d-PIV

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Symmetries and solutions of the Painleve IV equation are presented in an alternative framework which provides the bridge between the Hamiltonian formalism and the symmetric Painleve IV equation. This approach originates from a method…

Mathematical Physics · Physics 2009-09-22 H. Aratyn , J. F. Gomes , A. H. Zimerman

We give an explicit determinant formula for a class of rational solutions of a q-analogue of the Painlev\'e V equation. The entries of the determinant are given by the continuous q-Laguerre polynomials.

Exactly Solvable and Integrable Systems · Physics 2007-05-23 Tetsu Masuda

Differential equations for the special polynomials associated with the rational solutions of the second Painleve hierarchy are introduced. It is shown rational solutions of the Korteveg - de Vries hierarchy can be found taking the…

Exactly Solvable and Integrable Systems · Physics 2007-05-23 Nikolai A. Kudryashov

The Painleve-IV equation has three families of rational solutions generated by the generalized Hermite polynomials. Each family is indexed by two positive integers m and n. These functions have applications to nonlinear wave equations,…

Mathematical Physics · Physics 2017-06-29 Robert Buckingham

In this paper, we present new, unstable solutions, which we call quicksilver solutions, of a $q$-difference Painlev\'e equation in the limit as the independent variable approaches infinity. The specific equation we consider in this paper is…

Exactly Solvable and Integrable Systems · Physics 2014-07-08 Nalini Joshi

We consider solutions of a discrete Painlev\'e equation arising from a construction of quantum minimal surfaces by Arnlind, Hoppe and Kontsevich, and in earlier work of Cornalba and Taylor on static membranes. While the discrete equation…

Mathematical Physics · Physics 2025-10-28 Peter A. Clarkson , Anton Dzhamay , Andrew N. W. Hone , Ben Mitchell

We consider the q-Painlev\'e equation of type $A_4^{(1)}$ (a version of q-Painlev\'e V equation) and construct a family of solutions expressible in terms of certain basic hypergeometric series. We also present the determinant formula for…

Exactly Solvable and Integrable Systems · Physics 2009-11-13 Taro Hamamoto , Kenji Kajiwara

We study factorizations of rational matrix functions with simple poles on the Riemann sphere. For the quadratic case (two poles) we show, using multiplicative representations of such matrix functions, that a good coordinate system on this…

Mathematical Physics · Physics 2013-02-14 Anton Dzhamay

The discrete Painlev\'e property is precisely defined, and basic discretization rules to preserve it are stated. The discrete Painlev\'e test is enriched with a new method which perturbs the continuum limit and generates infinitely many…

solv-int · Physics 2007-05-23 R. Conte , M. Musette

We study self-similar solutions of NLS-type dynamical systems. Lagrangian approach is used to show that they can be reduced to three canonical forms, which are related by Miura transformations. The fourth Painleve equation (PIV) is central…

solv-int · Physics 2007-05-23 M. Boiti , V. G. Marikhin , F. Pempinelli , A. B. Shabat

We construct explicit multivortex solutions for the first and second complex sine-Gordon equations. The constructed solutions are expressible in terms of the modified Bessel and rational functions, respectively. The vorticity-raising and…

High Energy Physics - Theory · Physics 2009-10-31 I. V. Barashenkov , D. E. Pelinovsky

Bilinear structure for the discrete Painlev\'e I equation is investigated. The solution on semi-infinite lattice is given in terms of the Casorati determinant of discrete Airy function. Based on this fact, the discrete Painlev\'e I equation…

solv-int · Physics 2008-02-03 Y. Ohta , K. Kajiwara , J. Satsuma

The problem of construction of integrable boundary conditions for the discrete Toda chain is considered. The restricted chains for properly chosen closure conditions are reduced to the well known discrete Painlev\'e equations $dP_{III}$,…

Exactly Solvable and Integrable Systems · Physics 2009-11-10 T. G. Kazakova

Painleve transcendents are usually considered as complex functions of a complex variable, but in applications it is often the real cases that are of interest. Under a reasonable assumption (concerning the behavior of a dynamical system…

Mathematical Physics · Physics 2019-05-30 Jeremy Schiff , Michael Twiton

We establish a matrix generalization of the ultradiscrete fourth Painlev\'e equation (ud-PIV). Well-defined multicomponent systems that permit ultradiscretization are obtained using an approach that relies on a group defined by constraints…

Exactly Solvable and Integrable Systems · Physics 2007-05-23 Chris M. Field , Chris M. Ormerod

A local behavior of solutions of the Schlesinger equation is studied. We obtain expansions for this solutions, which converge in some neighborhood of a singular point. As a corollary the similar result for the sixth Painlev\'e equation was…

Classical Analysis and ODEs · Mathematics 2012-12-11 Ilya Vyugin

We construct algebro-geometric upper triangular solutions of rank two Schlesinger systems. Using these solutions we derive two families of solutions to the sixth Painlev\'e equation with parameters $({1}/{8}, -{1}/{8}, {1}/{8}, {3}/{8})$…

Algebraic Geometry · Mathematics 2017-06-27 Vladimir Dragovic , Vasilisa Shramchenko

We present a systematic approach to the construction of Miura transformations for discrete Painlev\'e equations. Our method is based on the bilinear formalism and we start with the expression of the nonlinear discrete equation in terms of…

solv-int · Physics 2009-10-31 N. Joshi , A. Ramani , B. Grammaticos

Hirota's discrete KdV equation is a well-known integrable two-dimensional partial difference equation regarded as a discrete analogue of the KdV equation. In this paper, we show that a variation of Hirota's discrete KdV equation with an…

Exactly Solvable and Integrable Systems · Physics 2026-01-09 Nobutaka Nakazono

The third Painlev\'e equation in its generic form, often referred to as Painlev\'e-III($D_6$), is given by $$ \frac{{\rm d}^2u}{{\rm d}x^2} =\frac{1}{u}\left(\frac{{\rm d}u}{{\rm d}x}\right)^2-\frac{1}{x}\frac{{\rm d}u}{{\rm…

Classical Analysis and ODEs · Mathematics 2024-03-12 Ahmad Barhoumi , Oleg Lisovyy , Peter D. Miller , Andrei Prokhorov