We discuss the existence and uniqueness of the solutions of the nonhomogeneous linear differential equations of arbitrary positive real order by using the fractional B-Splines wavelets and the Mittag-Leffler function. The differential operators are taken in the Riemann-Liouville sense and the initial values are zeros. The scheme of solving the fractional differential equations and the explicit expression of the solution is given in this paper. At last, we show the asymptotic solution of the differential equations of fractional order and corresponding truncated error in theory
In this paper, we are interested to develop a numerical method based on the Chebyshev wavelets for s...
This paper presents a computational method for solving a class of system of nonlinear singular fract...
This paper presents a new numerical method for a class of fractional optimal control problems (FOCPs...
Fractional calculus can be considered as supper set of conventional calculus in the sense that it ex...
Fractional calculus can be considered as supper set of conventional calculus in the sense that it ex...
AbstractIn this paper, we develop a framework to obtain approximate numerical solutions to ordinary ...
A wavelet method to the solution for time-fractional partial differential equation, by which combini...
Available online June In this paper, we use a method based on the operational matrices to the soluti...
A new method based on a hybrid of Chebyshev wavelets and finite difference methods is introduced for...
In this paper, the numerical solution of Fractional Differential-Algebraic Equations (FDAEs) is cons...
An explicit method for solving time fractional wave equations with various nonlinearity is proposed ...
In this paper, we present a numerical solution based on fractional-order Legendre wavelets for solvi...
In this paper, fractional-order Bernoulli wavelets based on the Bernoulli polynomials are constructe...
We extend Schoenberg's B-splines to all fractional degrees α>−1 2. These splines are constru...
Suitable spline functions of polynomial form are derived and used to solve linear and nonlinear frac...
In this paper, we are interested to develop a numerical method based on the Chebyshev wavelets for s...
This paper presents a computational method for solving a class of system of nonlinear singular fract...
This paper presents a new numerical method for a class of fractional optimal control problems (FOCPs...
Fractional calculus can be considered as supper set of conventional calculus in the sense that it ex...
Fractional calculus can be considered as supper set of conventional calculus in the sense that it ex...
AbstractIn this paper, we develop a framework to obtain approximate numerical solutions to ordinary ...
A wavelet method to the solution for time-fractional partial differential equation, by which combini...
Available online June In this paper, we use a method based on the operational matrices to the soluti...
A new method based on a hybrid of Chebyshev wavelets and finite difference methods is introduced for...
In this paper, the numerical solution of Fractional Differential-Algebraic Equations (FDAEs) is cons...
An explicit method for solving time fractional wave equations with various nonlinearity is proposed ...
In this paper, we present a numerical solution based on fractional-order Legendre wavelets for solvi...
In this paper, fractional-order Bernoulli wavelets based on the Bernoulli polynomials are constructe...
We extend Schoenberg's B-splines to all fractional degrees α>−1 2. These splines are constru...
Suitable spline functions of polynomial form are derived and used to solve linear and nonlinear frac...
In this paper, we are interested to develop a numerical method based on the Chebyshev wavelets for s...
This paper presents a computational method for solving a class of system of nonlinear singular fract...
This paper presents a new numerical method for a class of fractional optimal control problems (FOCPs...