New Exact Solution of Generalized Biological Population Model
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Date
2017
Journal Title
Journal ISSN
Volume Title
Publisher
int Scientific Research Publications
Open Access Color
GOLD
Green Open Access
Yes
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Publicly Funded
No
Abstract
In this study, a mathematical model of the generalized biological population model (GBPM) gets a new exact solution with a conformable derivative operator (CDO). The new exact solution of this model will be obtained by a new approximate analytic technique named three dimensional conformable reduced differential transform method (TCRDTM). By using this technique, it is possible to find new exact solution as well as closed analytical approximate solution of a partial differential equations (PDEs). Three numerical applications of GBPM are given to check the accuracy, effectiveness, and convergence of the TCRDTM. In these applications, obtained new exact solutions in conformable sense are compared with the exact solutions in Caputo sense in literature. The comparisons are illustrated in 3D graphics. The results show that when alpha -> 1, the exact solutions in conformable and Caputo sense converge to each other. In other cases, exact solutions different from each other are obtained. (C) 2017 All rights reserved.
Description
Keywords
Numerical Solution, Biological Populations Model, Reduced Differential Transform Method, Conformable Derivative, Partial Differential Equations, Numerical solution, biological populations model, partial differential equations, conformable derivative, reduced differential transform method, numerical solution, Numerical approximation of solutions of dynamical problems in solid mechanics, Fractional partial differential equations
Fields of Science
0101 mathematics, 01 natural sciences
Citation
Acan, Omer; Al Qurashi, Maysaa Mohamed; Baleanu, Dumitru (2017). New exact solution of generalized biological population model, Journal Of Nonlinear Sciences And Applications, 10(7), 3916-3929.
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Scopus Q

OpenCitations Citation Count
21
Source
The Journal of Nonlinear Sciences and Applications
Volume
10
Issue
7
Start Page
3916
End Page
3929
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