Approximation of Fractional Caputo Derivative of Variable Order and Variable Terminals with Application to Initial/Boundary Value Problems

被引:0
作者
Stempin, Paulina [1 ]
Sumelka, Wojciech [1 ]
机构
[1] Poznan Univ Tech, Inst Struct Anal, Piotrowo 5 St, PL-60965 Poznan, Poland
关键词
fractional calculus; fractional differential equation; fractional boundary value problem; fractional initial value problem; fractional derivative approximation; fractional variable order; variable terminal of fractional derivative; ADVECTION-DISPERSION EQUATIONS; BOUNDARY-VALUE-PROBLEMS; NUMERICAL-SOLUTIONS; VIBRATION; INTEGRALS;
D O I
10.3390/fractalfract9050269
中图分类号
O1 [数学];
学科分类号
0701 ; 070101 ;
摘要
This article presents a method for the approximate calculation of fractional Caputo derivatives, including a crucial aspect of the ability to handle arbitrary-even variable-terminals and order. The proposed method involves rearranging the fractional operator as a series of higher-order derivatives considered at a specific point. We demonstrate the effect of the number of terms included in the series expansion on the solution accuracy and error analysis. The advantage of the method is its simplicity and ease of implementation. Additionally, the method allows for a quick estimation of the fractional derivative by using a few first terms of the expansion. The elaborated algorithm is tested against a comprehensive series of illustrative examples, providing very good agreement with the exact/reference solutions. Furthermore, the application of the proposed method to fractional boundary/initial value problems is included.
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页数:17
相关论文
共 55 条
[1]   An Accurate Approach to Simulate the Fractional Delay Differential Equations [J].
Adel, Mohamed ;
Khader, Mohamed M. ;
Algelany, Salman ;
Aldwoah, Khaled .
FRACTAL AND FRACTIONAL, 2023, 7 (09)
[2]  
Almeida R, 2019, RACSAM REV R ACAD A, V113, P1873, DOI 10.1007/s13398-018-0590-0
[3]   Fractional differential equations and Volterra-Stieltjes integral equations of the second kind [J].
Asanov, Avyt ;
Almeida, Ricardo ;
Malinowska, Agnieszka B. .
COMPUTATIONAL & APPLIED MATHEMATICS, 2019, 38 (04)
[4]  
Balanchandran K., 2023, An Introduction to Fractional Differential Equations
[5]   A Brief Review of Fractional Calculus as a Tool for Applications in Physics: Adsorption Phenomena and Electrical Impedance in Complex Fluids [J].
Barbero, Giovanni ;
Evangelista, Luiz. R. ;
Zola, Rafael S. ;
Lenzi, Ervin K. ;
Scarfone, Antonio M. .
FRACTAL AND FRACTIONAL, 2024, 8 (07)
[6]   Numerical algorithms for approximation of fractional integral operators based on quadratic interpolation [J].
Blaszczyk, Tomasz ;
Siedlecki, Jaroslaw ;
Ciesielski, Mariusz .
MATHEMATICAL METHODS IN THE APPLIED SCIENCES, 2018, 41 (09) :3345-3355
[7]  
Caputo M, 2016, Progress in Fractional Differentiation and Applications, V2, P1, DOI [10.18576/pfda/020101, DOI 10.12785/PFDA/010201]
[8]   Advances in modelling and analysis of nano structures: a review [J].
Chandel, Vikram Singh ;
Wang, Guannan ;
Talha, Mohammad .
NANOTECHNOLOGY REVIEWS, 2020, 9 (01) :230-258
[9]  
ebyev P.L., 1853, Thorie des Mcanismes Connus Sous le Nom de Paralllogrammes
[10]  
ebyev P.L., 1859, Sur les Questions de Minima qui se Rattachent a la Reprsentation Approximative des Fonctions