A wavelet collocation method based on Gegenbauer scaling function for solving fourth-order time-fractional integro-differential equations with a weakly singular kernel

被引:17
作者
Faheem, Mo [1 ]
Khan, Arshad [1 ]
机构
[1] Jamia Millia Islamia, Dept Math, New Delhi 110025, India
关键词
Collocation method; Wavelet; Gegenbauer scaling function; Fourth-order time-fractional; integro-differential equations; Convergence; FINITE-DIFFERENCE SCHEME; DISCONTINUOUS GALERKIN METHOD; NUMERICAL-SOLUTION; ELEMENT-METHOD; DIFFUSION; DERIVATIVES; SPACE;
D O I
10.1016/j.apnum.2022.10.003
中图分类号
O29 [应用数学];
学科分类号
070104 ;
摘要
A high resolution wavelet collocation method based on Gegenbauer polynomials is proposed for the solution of fourth-order time-fractional integro-differential equations (FTFIDE) with a weakly singular kernel. A Riemann-Liouville fractional integral operator for the Gegenbauer scaling function (RLFIO-G) is constructed using the definition of RiemannLiouville (R-L) operator with the aid of Gegenbauer scaling function. The application of Gegenbauer scaling function and RLFIO-G to FTFIDE gives a system of linear algebraic equations, which can be quickly solved for unknown coefficients. With the aid of these coefficients, we get the approximate solution. We have also established the convergence analysis of the proposed method. We have tested the presented method on some numerical examples to demonstrate the accuracy. Moreover, we have compared the developed method with the existing method to conclude the superiority of the proposed method. (c) 2022 IMACS. Published by Elsevier B.V. All rights reserved.
引用
收藏
页码:197 / 218
页数:22
相关论文
共 47 条
[1]   Solving systems of fractional differential equations by homotopy-perturbation method [J].
Abdulaziz, O. ;
Hashim, I. ;
Momani, S. .
PHYSICS LETTERS A, 2008, 372 (04) :451-459
[2]   On a nonlinear dynamical system with both chaotic and nonchaotic behaviors: a new fractional analysis and control [J].
Baleanu, Dumitru ;
Sajjadi, Samaneh Sadat ;
Jajarmi, Amin ;
Defterli, Ozlem .
ADVANCES IN DIFFERENCE EQUATIONS, 2021, 2021 (01)
[3]   Analog fractional order controller in temperature and motor control applications [J].
Bohannan, Gary W. .
JOURNAL OF VIBRATION AND CONTROL, 2008, 14 (9-10) :1487-1498
[4]   FINITE ELEMENT METHOD FOR THE SPACE AND TIME FRACTIONAL FOKKER-PLANCK EQUATION [J].
Deng, Weihua .
SIAM JOURNAL ON NUMERICAL ANALYSIS, 2008, 47 (01) :204-226
[5]   Wavelet collocation methods for solving neutral delay differential equations [J].
Faheem, Mo ;
Raza, Akmal ;
Khan, Arshad .
INTERNATIONAL JOURNAL OF NONLINEAR SCIENCES AND NUMERICAL SIMULATION, 2022, 23 (7-8) :1129-1156
[6]   Collocation methods based on Gegenbauer and Bernoulli wavelets for solving neutral delay differential equations [J].
Faheem, Mo ;
Raza, Akmal ;
Khan, Arshad .
MATHEMATICS AND COMPUTERS IN SIMULATION, 2021, 180 :72-92
[7]   On some wavelet solutions of singular differential equations arising in the modeling of chemical and biochemical phenomena [J].
Faheem, Mo ;
Khan, Arshad ;
El-Zahar, E. R. .
ADVANCES IN DIFFERENCE EQUATIONS, 2020, 2020 (01)
[8]  
Glowinski R., 1989, WAVELET SOLUTION LIN
[9]   A fourth-order approximation of fractional derivatives with its applications [J].
Hao, Zhao-peng ;
Sun, Zhi-zhong ;
Cao, Wan-rong .
JOURNAL OF COMPUTATIONAL PHYSICS, 2015, 281 :787-805
[10]  
何吉欢, 1999, [科技通报, Bulletin of Science and Technology], V15, P86