Sinc approximation for solving fourth-order pseudo-Poisson equations
DOI:
https://doi.org/10.29304/jqcsm.2024.16.11452Keywords:
Sinc approximation, Pseudo-Poisson problem, numerical approximationAbstract
In this article, we will investigate the Galerkin sinc approximation to solve the single pseudo-Poisson problem and in this method we will reach a linear system. We will solve this system by carefully choosing the length of the steps and the number of nodal points and with two methods; the first method, which is the usual method, is theoretically flawed and not practical and computationally efficient. Therefore, to solve the mentioned system, we introduce the orthogonalization technique, which solves both theoretical and computational problems. Numerical approximation is obtained whose accuracy is exponential and of order where N is a transaction parameter and c is a constant independent of N. In the final part, we give some numerical examples of individual pseudo-Poisson problems to demonstrate the efficiency of the method.
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Wenlin Qiu, Da Xu, Jun Zhou, Jing Guo, An efficient Sinc-collocation method via the DE transformation for eighth-order boundary value problems, Journal of Computational and Applied Mathematics Volume 408, July 2022, 114136.
Babolian E, Eftekhari A, saadatmandi A. A sinc-Galerkin technique for the numerical solution of a class of singular boundary value problems. Comput Appl Math 2013.
Partha Kumbhakar, Ursashi Roy, Varadharaj R. Srinivasan, A classification of first order differential equations, Journal of Algebra Volume 644, 15 April 2024, Pages 580-608.
R.D’Ambrosio, E. Esposito, B. Paternoster, General linear methods for , Numer. Algor. 61 (2) (2012) 331–349.
Z.G. Huang, J. Wang, Fatou sets of entire solutions of linear differential equations, J. Math. Anal. Appl. 409 (2014) 275–281, 409 (2014) 478–484.
Jena SR, Nayak D, Paul AK, Mishra SC. Numerical Investigation, Error Analysis and Application of Joint Quadrature Scheme in Physical Sciences, Baghdad Sci J. 2023, 20(5): 1789-1796.
Allaei, SS, Yang ZW, Brunner H. Collocation methods for third-kind VIEs. IMA Journal of Numerical Analysis, 2016. 37(3): p. 1104-1124.
Gebremedhin GS, Jena SR. Approximate Solution of Ordinary Differential Equations via Hybrid Block Approach. Int J Emerg Technol. 2019; 10(4): 210-211, www.researchtrend.net
Jena SR, Mohanty M, Mishra SK. Ninth step block method for numerical solution of fourth order ordinary differential equation. Advanced Model of Analysis. 2018; 55: 45-56.
Gebremedhin GS, Jena SR. Approximate solution of a fourth order ordinary differential equation via tenth step block method. Int J Comput Sci Math. 2020; 11: 253-2, 10.1504/ IJCSM. 2020.10028216.
Kazem S, Dehghan M. Application of finite difference method of lines on the heat equation. Numerical Methods for Partial Differential Equations . 2018 Mar; 34(2):626-660.
Wakjira YA, Duressa GF. Exponential spline method for singularly perturbed third-order boundary value problems. Demonstr Math 2020; 53:360–72.
Mohammadi K, Alipanah A, Ghasemi M. A non-classical sinc-collocation method for the solution of singular boundary value problems arising in physiology. Int J Comput Math 2022; 99:1941–67.
Alipanah A, Mohammadi K, Ghasemi M. Numerical solution of third-order boundary value problems using non-classical sinc-collocation method. Comput Differential Equations 2023; 11:643–63.
15. A. Rahmoune, A. Guechi, Sinc-Nyström methods for Fredholm integral equations of the second kind over infinite intervals, Applied Numerical Mathematics, 157, November 2020, Pages 579-589.
A.Weiser, S. C. Eisenstat and M. H. Schultz, On solving elliptic problems to moderate accuracy, 17(1980),pp.908-929.
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