Fractional differential problems are widely used in applied sciences. For this reason, there is a great interest in the construction of efficient numerical methods to approximate their solution. The aim of this paper is to describe in detail a collocation method suitable to approximate the solution of dynamical systems with time derivative of fractional order. We will highlight all the steps necessary to implement the corresponding algorithm and we will use it to solve some test problems. Two Mathematica Notebooks that can be used to solve these test problems are provided
We use a collocation method in refinable spline spaces to solve a linear dynamical system having fra...
The theory of fractional calculus goes back to the beginning of the theory of differential calculus,...
AbstractIn this article, we implement relatively new analytical techniques, the variational iteratio...
We present a collocation method based on fractional B-splines for the solution of fractional differe...
We propose two-step collocation methods for the numerical solution of fractional differential equati...
Nonlinear fractional differential equations are widely used to model real-life phenomena. For this ...
The introduction of non-integer derivatives into the models of many processes of science and enginee...
AbstractIn this paper, the variational iteration method and the Adomian decomposition method are imp...
Multi-term fractional differential equations have been used to simulate fractional-order control sys...
Nonlinear fractional differential equations are widely used to model real-life phenomena. For this r...
There has recently been considerable interest in using a nonstandard piecewise approximation to form...
Solving differential equations of fractional (i.e., non-integer) order in an accurate, reliable and ...
The theory of fractional calculus goes back to the beginning of the theory of differential calculus,...
Fractional order partial differential equations, as generalization of classical integer order partia...
In this work, our aim is to obtain a numerical solution to some fractional differential equations. I...
We use a collocation method in refinable spline spaces to solve a linear dynamical system having fra...
The theory of fractional calculus goes back to the beginning of the theory of differential calculus,...
AbstractIn this article, we implement relatively new analytical techniques, the variational iteratio...
We present a collocation method based on fractional B-splines for the solution of fractional differe...
We propose two-step collocation methods for the numerical solution of fractional differential equati...
Nonlinear fractional differential equations are widely used to model real-life phenomena. For this ...
The introduction of non-integer derivatives into the models of many processes of science and enginee...
AbstractIn this paper, the variational iteration method and the Adomian decomposition method are imp...
Multi-term fractional differential equations have been used to simulate fractional-order control sys...
Nonlinear fractional differential equations are widely used to model real-life phenomena. For this r...
There has recently been considerable interest in using a nonstandard piecewise approximation to form...
Solving differential equations of fractional (i.e., non-integer) order in an accurate, reliable and ...
The theory of fractional calculus goes back to the beginning of the theory of differential calculus,...
Fractional order partial differential equations, as generalization of classical integer order partia...
In this work, our aim is to obtain a numerical solution to some fractional differential equations. I...
We use a collocation method in refinable spline spaces to solve a linear dynamical system having fra...
The theory of fractional calculus goes back to the beginning of the theory of differential calculus,...
AbstractIn this article, we implement relatively new analytical techniques, the variational iteratio...