Numerical results indicate that the proposed method provides a high degree of accuracy to solve the linear multi-order FDEs.
📌 3 Maddede Bu Makale
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Amaç & Hipotez:In this article, a new operational matrix of fractional integration of Hermite polynomials is derived to solve multi-order linear fractional differential equations (FDEs) with spectral tau approach.
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Temel Bulgular & Veri:We firstly convert the FDEs into an integrated-form through multiple fractional integration in association with the Riemann-Liouville sense.
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Sonuç & Katkı:Numerical results indicate that the proposed method provides a high degree of accuracy to solve the linear multi-order FDEs.
In this article, a new operational matrix of fractional integration of Hermite polynomials is derived to solve multi-order linear fractional differential equations (FDEs) with spectral tau approach. We firstly convert the FDEs into an integrated-form through multiple fractional integration in association with the Riemann-Liouville sense. This integral equation is then formulated as an algebraic equation system with Hermite polynomials. Finally, linear multi-order FDEs with initial conditions are solved with this method. We present exact and approximated solutions for a number of representative examples. Numerical results indicate that the proposed method provides a high degree of accuracy to solve the linear multi-order FDEs.
Koşunalp, H. Y., Gülsu, M. (2024). Operational matrix for multi-order fractional differential equations with hermite polynomials. Sigma Journal of Engineering and Natural Sciences, Volume: 42 Issue: 4. https://ajindex.com/articles/1632232
Carpinteri A, Mainardi F. Fractals and fractional calculus in continium mechanics. Vienna: Springer-Verlag Wien; 1997. [CrossRef]
Miller KS, Ross B. An introduction to the fractional calculus and fractional differential equations. Toronto: John Wiley and Son;1993.
Oldham KB, Spainer J. The fractional calculus, theory and applications of differentiation and integration to arbitrary order. Mineola, New York: Dover Publications; 2006.
Das S. Functional fractional calculus for system identification and controls. Heidelberg, Berlin: Springer; 2008.
Kilbas AA, Srivastava HM, Trujillo JJ. Theory and applications of fractional differential equations. Amsterdam, Netherlands: Elsevier; 2006.
Baleanu D, Diethelm K, Scalas E, Trujillo JJ. Fractional calculus models and numerical methods. Hackensack, New Jersey; World Scientific Publishing; 2012. [CrossRef]
Plonka A. Recent developments in dispersive kinetics. Progr React Kinet Mech 2000;25:109–127. [CrossRef]
Allegrini P, Buiatti M, Grinolini P, West BL. Fractional brownian motion as a nonstationary process: An alternative paradigm for DNA sequences. J West Phys Rev 1998;57:558–567. [CrossRef]
Bisquert J. Fractional diffusion in the multiple-trapping regime and revision of the equivalence with the continuous time random walk. Phys Rev Lett 2003;91:010602.
Bailie RT, King ML. Fractional differencing and long memory processes. J Econom 1996;73:1–3. [CrossRef]
Outsaloup A. La Commande CRONE: Commande robuste d’ordre non nntiere. Paris, France: Hermes; 1991.
Bhrawy AK, Abdelkawy MA. A fully spectral collocation approximation for multi-dimensional fractional Schrödinger equations. J Comput Phys 2015;294:462–483. [CrossRef]
Guo BY, Zhang XY. A new generalized laguerre approximation and its applications. J Comput Appl Math 2005;181:342–363. [CrossRef]
Mikhailenko BG. Spectral laguerre method for the approximate solution of time-dependent problems. Appl Math Lett 1999;12:105–110. [CrossRef]
Bhrawy AH, Alghamdi MM, Taha MT. A new modified generalized laguerre operational matrix of fractional integration for solving fractional differential equations on the half line. 2012;2012:179. [CrossRef]
Ding XL, Jiang YL. Waveform relaxation methods for fractional differential equations with the Caputo derivatives. J Comput Appl Math 2012;16:573–594. [CrossRef]
Bhrawy AH, Tharwat MM, Yıldırım A. A new formula for fractional integrals of chebyshev polynomials: application for solving multi-term fractional differential equations. Appl Math Model 2013;37:4245–4252. [CrossRef]
Bhrawy AH, Alofi AS. The operational matrix of fractional integration for shifted chebyshev polynomials. Appl Math Lett 2013;26:25–31. [CrossRef]
Doha EH, Bhrawy AH, Ezz-Eldien SS. A new jacobi operational matrix: An application for solving fractional differential equations. Appl Math Model 2013;36:4931–4943. [CrossRef]
Bhrawy AH, Alghamdi MA. A shifted jacobi-gauss-lobatto collocation method for solving nonlinear fractional langevin equation. Bound Value Probl 2012;2012:62. [CrossRef]
Bhrawy AH, Tharwat MM, Alghamdi MA. A new operational matrix of fractional integration for shifted jacobi polynomials. Bull Malays Math Sci Soc 2014;37:983–995.
Saadatmandi A, Dehghan M. A new operational matrix for solving fractional-order differential equations. Comput Math Appl 2014;3:1326–1336. [CrossRef]
Akrami MH, Atabakzadeh MH, Erjaee GH. The operational matrix of fractional integration for shifted legendre polynomials. Iran J Sci Technol 2013;37:439–444. [CrossRef]
Belgacem R, Bokhari A, Amir A. Bernoulli operational matrix of fractional derivative for solution of fractional differential equations. Gen Lett Math 2018;5:32– 46. [CrossRef]
Poularikas AD. The handbook of formulas and tables for signal processing. 1st ed. Boca Raton: CRC Press; 1999. [CrossRef]
Kumar P, Agrawal OP. An approximate method for numerical solution of fractional differential equations. Signal Process 2006;86:2602–2610. [CrossRef]