Soliton solutions associated with a class of third-order ordinary linear differential operators

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Main Authors: Aktosun, Tuncay, Choque-Rivero, Abdon E., Toledo, Ivan, Unlu, Mehmet
Format: Preprint
Published: 2024
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author Aktosun, Tuncay
Choque-Rivero, Abdon E.
Toledo, Ivan
Unlu, Mehmet
author_facet Aktosun, Tuncay
Choque-Rivero, Abdon E.
Toledo, Ivan
Unlu, Mehmet
contents Explicit solutions to the related integrable nonlinear evolution equations are constructed by solving the inverse scattering problem in the reflectionless case for the third-order differential equation $d^3ψ/dx^3+Q\,dψ/dx+Pψ=k^3ψ,$ where $Q$ and $P$ are the potentials in the Schwartz class and $k^3$ is the spectral parameter. The input data set used to solve the relevant inverse problem consists of the bound-state poles of a transmission coefficient and the corresponding bound-state dependency constants. Using the time-evolved dependency constants, explicit solutions to the related integrable evolution equations are obtained. In the special cases of the Sawada--Kotera equation and the modified bad Boussinesq equation, the method presented here explains the physical origin of the constants appearing in the relevant $\mathbf N$-soliton solutions algebraically constructed, but without any physical insight, by the bilinear method of Hirota.
format Preprint
id arxiv_https___arxiv_org_abs_2412_10971
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Soliton solutions associated with a class of third-order ordinary linear differential operators
Aktosun, Tuncay
Choque-Rivero, Abdon E.
Toledo, Ivan
Unlu, Mehmet
Exactly Solvable and Integrable Systems
Mathematical Physics
34A55 34M50 35C08
Explicit solutions to the related integrable nonlinear evolution equations are constructed by solving the inverse scattering problem in the reflectionless case for the third-order differential equation $d^3ψ/dx^3+Q\,dψ/dx+Pψ=k^3ψ,$ where $Q$ and $P$ are the potentials in the Schwartz class and $k^3$ is the spectral parameter. The input data set used to solve the relevant inverse problem consists of the bound-state poles of a transmission coefficient and the corresponding bound-state dependency constants. Using the time-evolved dependency constants, explicit solutions to the related integrable evolution equations are obtained. In the special cases of the Sawada--Kotera equation and the modified bad Boussinesq equation, the method presented here explains the physical origin of the constants appearing in the relevant $\mathbf N$-soliton solutions algebraically constructed, but without any physical insight, by the bilinear method of Hirota.
title Soliton solutions associated with a class of third-order ordinary linear differential operators
topic Exactly Solvable and Integrable Systems
Mathematical Physics
34A55 34M50 35C08
url https://arxiv.org/abs/2412.10971