Algebraic computational methods for solving three nonlinear vital models fractional in mathematical physics

This research paper uses a direct algebraic computational scheme to construct the Jacobi elliptic solutions based on the conformal fractional derivatives for nonlinear partial fractional differential equations (NPFDEs). Three vital models in mathematical physics [the space-time fractional coupled Hi...

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Autores principales: Gepreel Khaled A., Mahdy Amr M. S.
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Lenguaje:EN
Publicado: De Gruyter 2021
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spelling oai:doaj.org-article:ddaa5011096945128998dc84c404c50f2021-12-05T14:11:01ZAlgebraic computational methods for solving three nonlinear vital models fractional in mathematical physics2391-547110.1515/phys-2021-0020https://doaj.org/article/ddaa5011096945128998dc84c404c50f2021-04-01T00:00:00Zhttps://doi.org/10.1515/phys-2021-0020https://doaj.org/toc/2391-5471This research paper uses a direct algebraic computational scheme to construct the Jacobi elliptic solutions based on the conformal fractional derivatives for nonlinear partial fractional differential equations (NPFDEs). Three vital models in mathematical physics [the space-time fractional coupled Hirota Satsuma KdV equations, the space-time fractional symmetric regularized long wave (SRLW equation), and the space-time fractional coupled Sakharov–Kuznetsov (S–K) equations] are investigated through the direct algebraic method for more explanation of their novel characterizes. This approach is an easy and powerful way to find elliptical Jacobi solutions to NPFDEs. The hyperbolic function solutions and trigonometric functions where the modulus and, respectively, are degenerated by Jacobi elliptic solutions. In this style, we get many different kinds of traveling wave solutions such as rational wave traveling solutions, periodic, soliton solutions, and Jacobi elliptic solutions to nonlinear evolution equations in mathematical physics. With the suggested method, we were fit to find much explicit wave solutions of nonlinear integral differential equations next converting them into a differential equation. We do the 3D and 2D figures to define the kinds of outcome solutions. This style is moving, reliable, powerful, and easy for solving more difficult nonlinear physics mathematically.Gepreel Khaled A.Mahdy Amr M. S.De Gruyterarticlephysical application of pfdesalgebraic methodoptical solutionlocal fractional derivativesjacobi elliptic functionsPhysicsQC1-999ENOpen Physics, Vol 19, Iss 1, Pp 152-169 (2021)
institution DOAJ
collection DOAJ
language EN
topic physical application of pfdes
algebraic method
optical solution
local fractional derivatives
jacobi elliptic functions
Physics
QC1-999
spellingShingle physical application of pfdes
algebraic method
optical solution
local fractional derivatives
jacobi elliptic functions
Physics
QC1-999
Gepreel Khaled A.
Mahdy Amr M. S.
Algebraic computational methods for solving three nonlinear vital models fractional in mathematical physics
description This research paper uses a direct algebraic computational scheme to construct the Jacobi elliptic solutions based on the conformal fractional derivatives for nonlinear partial fractional differential equations (NPFDEs). Three vital models in mathematical physics [the space-time fractional coupled Hirota Satsuma KdV equations, the space-time fractional symmetric regularized long wave (SRLW equation), and the space-time fractional coupled Sakharov–Kuznetsov (S–K) equations] are investigated through the direct algebraic method for more explanation of their novel characterizes. This approach is an easy and powerful way to find elliptical Jacobi solutions to NPFDEs. The hyperbolic function solutions and trigonometric functions where the modulus and, respectively, are degenerated by Jacobi elliptic solutions. In this style, we get many different kinds of traveling wave solutions such as rational wave traveling solutions, periodic, soliton solutions, and Jacobi elliptic solutions to nonlinear evolution equations in mathematical physics. With the suggested method, we were fit to find much explicit wave solutions of nonlinear integral differential equations next converting them into a differential equation. We do the 3D and 2D figures to define the kinds of outcome solutions. This style is moving, reliable, powerful, and easy for solving more difficult nonlinear physics mathematically.
format article
author Gepreel Khaled A.
Mahdy Amr M. S.
author_facet Gepreel Khaled A.
Mahdy Amr M. S.
author_sort Gepreel Khaled A.
title Algebraic computational methods for solving three nonlinear vital models fractional in mathematical physics
title_short Algebraic computational methods for solving three nonlinear vital models fractional in mathematical physics
title_full Algebraic computational methods for solving three nonlinear vital models fractional in mathematical physics
title_fullStr Algebraic computational methods for solving three nonlinear vital models fractional in mathematical physics
title_full_unstemmed Algebraic computational methods for solving three nonlinear vital models fractional in mathematical physics
title_sort algebraic computational methods for solving three nonlinear vital models fractional in mathematical physics
publisher De Gruyter
publishDate 2021
url https://doaj.org/article/ddaa5011096945128998dc84c404c50f
work_keys_str_mv AT gepreelkhaleda algebraiccomputationalmethodsforsolvingthreenonlinearvitalmodelsfractionalinmathematicalphysics
AT mahdyamrms algebraiccomputationalmethodsforsolvingthreenonlinearvitalmodelsfractionalinmathematicalphysics
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