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Novel and accurate Gegenbauer spectral tau algorithms for distributed order nonlinear time-fractional telegraph models in multi-dimensions. (English) Zbl 1508.65138

This article is concerned with numerical approximations to the multi-dimensional distributed-order nonlinear time-fractional telegraph equations models. The approach relies on the use of shifted Gegenbauer polynomials. The proposed method takes full advantage of the nonlocal nature of distributed order fractional differential operators. Error estimations are obtained. Also, several numerical experiments are included to support the utility of the proposed algorithm.

MSC:

65M70 Spectral, collocation and related methods for initial value and initial-boundary value problems involving PDEs
33C45 Orthogonal polynomials and functions of hypergeometric type (Jacobi, Laguerre, Hermite, Askey scheme, etc.)
26A33 Fractional derivatives and integrals
35R11 Fractional partial differential equations
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References:

[1] Defterli, O., Modeling the impact of temperature on fractional order dengue model with vertical transmission, An Int J Optim Control Theor Appl, 10, 85-93 (2020)
[2] Su, N., Fractional calculus for hydrology, soil science and geomechanics : An introduction to applications (2021), CRC Press
[3] Herrmann, R., Fractional calculus: An introduction for physicists (2011), World Scientific: World Scientific Hackensack · Zbl 1232.26006
[4] Obembe, A. D.; Al-Yousef, H. Y.; Hossain, M. E.; Abu-Khamsin, S. A., Fractional derivatives and their applications in reservoir engineering problems: A review, J Pet Sci Eng, 157, 312-327 (2017)
[5] Oldham, K. B., Fractional differential equations in electrochemistry, Adv Eng Softw, 41, 1, 9-12 (2010) · Zbl 1177.78041
[6] Ara, A.; Khan, N. A.; Razzaq, O. A.; Hameed, T.; Raja, MAZ., Wavelets optimization method for evaluation of fractional partial differential equations: an application to financial modelling, Adv Differ Equ, 2018, 1, 1-13 (2018) · Zbl 1445.91062
[7] Duan, J. S.; Baleanu, D., Steady periodic response for a vibration system with distributed order derivatives to periodic excitation, J Vib Control, 24, 14, 3124-3131 (2018)
[8] Konjik, S.; Oparnica, L.; Zorica, D., Distributed-order fractional constitutive stress-strain relation in wave propagation modeling, Z Fur Angew Math Phys, 70, 2, 1-21 (2019) · Zbl 1415.35279
[9] Meerschaert, M. M.; Sikorskii, A., Stochastic models for fractional calculus, (Stochastic models for fractional calculus (2019), de Gruyter) · Zbl 1490.60004
[10] Vieira, N.; Rodrigues, M. M.; Ferreira, M., Time-fractional telegraph equation of distributed order in higher dimensions, Commun Nonlinear Sci Numer Simul, 102, Article 105925 pp. (2021) · Zbl 1471.35313
[11] Nikan, O.; Avazzadeh, Z.; Machado, J. T., Numerical approximation of the nonlinear time-fractional telegraph equation arising in neutron transport, Commun Nonlinear Sci Numer Simul, 99, Article 105755 pp. (2021) · Zbl 1471.65162
[12] Vyawahare VA, Nataraj PSV. Modeling neutron transport in a nuclear reactor as subdiffusion: the neutron fractional-order telegraph equation. In: The 4th IFAC workshop on fractional differentiation and its applications. Badajoz, Spain; 2010.
[13] Vyawahare, V. A.; Nataraj, PSV., Fractional-order modeling of neutron transport in a nuclear reactor, Appl Math Model, 37, 23, 9747-9767 (2013) · Zbl 1427.82064
[14] Moghaddam, B. P.; Machado, J. T.; Morgado, M. L., Numerical approach for a class of distributed order time fractional partial differential equations, Appl Numer Math, 136, 152-162 (2019) · Zbl 1407.65122
[15] Kumar, Y.; Singh, V. K., Computational approach based on wavelets for financial mathematical model governed by distributed order fractional differential equation, Math Comput Simul, 190, 531-569 (2021) · Zbl 1540.65420
[16] Eftekhari, T.; Rashidinia, J.; Maleknejad, K., Existence, uniqueness, and approximate solutions for the general nonlinear distributed-order fractional differential equations in a Banach space, Adv Differ Equ, 2021, 1, 1-22 (2021) · Zbl 1494.34026
[17] Khader, M. M.; Hendy, A. S., The approximate and exact solutions of the fractional-order delay differential equations using Legendre pseudospectral method, Int J Pure Appl Math, 74, 3, 287-297 (2012) · Zbl 1246.34064
[18] Safaie, E.; Farahi, M. H.; Farmani Ardehaie, M., An approximate method for numerically solving multi-dimensional delay fractional optimal control problems by Bernstein polynomials, Comput Appl Math, 34, 3, 831-846 (2015) · Zbl 1326.49047
[19] Mokhtary, P.; Moghaddam, B. P.; Lopes, A. M.; Machado, J. A., A computational approach for the non-smooth solution of non-linear weakly singular Volterra integral equation with proportional delay, Numer Algorithms, 83, 3, 987-1006 (2020) · Zbl 1436.65215
[20] Moghaddam, B. P.; Machado, J. A.; Babaei, A., A computationally efficient method for tempered fractional differential equations with application, Comput Appl Math, 37, 3, 3657-3671 (2018) · Zbl 1405.65092
[21] Zaky, M. A., A Legendre collocation method for distributed-order fractional optimal control problems, Nonlinear Dyn, 91, 4, 2667-2681 (2018) · Zbl 1392.35331
[22] Zaky, M. A., An accurate spectral collocation method for nonlinear systems of fractional differential equations and related integral equations with nonsmooth solutions, Appl Numer Math, 154, 205-222 (2020) · Zbl 1442.65464
[23] Ahmed, H. F.; Melad, M. B., A new approach for solving fractional optimal control problems using shifted ultraspherical polynomials, Prog Fract Differ Appl, 4, 3, 179-195 (2018)
[24] Zhang, H.; Liu, F.; Jiang, X.; Turner, I., Spectral method for the two-dimensional time distributed-order diffusion-wave equation on a semi-infinite domain, J Comput Appl Math, 399, Article 113712 pp. (2022) · Zbl 1500.65087
[25] Dehghan, M.; Abbaszadeh, M., A Legendre spectral element method (SEM) based on the modified bases for solving neutral delay distributed order fractional damped diffusion wave equation, Math Methods Appl Sci, 41, 9, 3476-3494 (2018) · Zbl 1395.65098
[26] Sepehrian, B.; Shamohammadi, Z., Numerical solution of nonlinear time-fractional telegraph equation by radial basis function collocation method, Iran J Sci Technol Trans A Sci, 42, 4, 2091-2104 (2018) · Zbl 06989346
[27] Cao, J. X.; Li, C. P.; Chen, Y. Q., High-order approximation to Caputo derivatives and Caputo-type advection-diffusion equations (II), Fract Calc Appl Anal, 18, 3, 735-761 (2015) · Zbl 1325.65121
[28] Li, C.; Zhao, Z.; Chen, Y., Numerical approximation of nonlinear fractional differential equations with subdiffusion and superdiffusion, Comput Math Appl, 62, 855-875 (2011) · Zbl 1228.65190
[29] Zhang, H.; Jiang, X., Unconditionally convergent numerical method for the two-dimensional nonlinear time fractional diffusion-wave equation, Appl Numer Math, 146, 1-12 (2019) · Zbl 1507.65198
[30] Huang, J.; Yang, D.; Jay, L. O., Efficient methods for nonlinear time fractional diffusion-wave equations and their fast implementations, Numer Algorithms, 85, 2, 375-397 (2020) · Zbl 1465.65072
[31] Doha, E. H., The coefficients of differentiated expansions and derivatives of ultraspherical polynomials, Comput Math Appl, 21, 2-3, 115-122 (1991) · Zbl 0723.33008
[32] Tameh, M. S.; Shivanian, E., Fractional shifted legendre tau method to solve linear and nonlinear variable-order fractional partial differential equations, Math Sci, 15, 1, 11-19 (2021) · Zbl 1473.65246
[33] Ahmed, H. F.; Moubarak, M. R.A.; Hashem, W. A., Gegenbauer spectral tau algorithm for solving fractional telegraph equation with convergence analysis, Pramana, 95, 2, 1-16 (2021)
[34] Stewart, G. W., Matrix algorithms, (Eigensystems, II (2001), Society for Industrial and Applied Mathematics) · Zbl 0984.65031
[35] Zaky, M. A.; Machado, J. T., Multi-dimensional spectral tau methods for distributed-order fractional diffusion equations, Comput Math Appl, 79, 2, 476-488 (2020) · Zbl 1443.65257
[36] Akram, T.; Abbas, M.; Iqbal, A.; Baleanu, D.; Asad, J. H., Novel numerical approach based on modified extended cubic B-spline functions for solving non-linear time-fractional telegraph equation, Symmetry, 12, 7, 1154 (2020)
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