In the simulation of dynamical systems exhibiting an ultraslow decay, differential equations of fractional order have been successfully proposed. In this paper we consider the problem of numerically solving fractional differential equations by means of a generalization of k-step Adams-Moulton multistep methods. Our investigation is focused on stability properties and we determine intervals for the fractional order for which methods are at least A(pi/2)-stable. Moreover we prove the A-stable character of k-step methods for k = 0 and k = 1. (C) 2008 IMACS. Published by Elsevier B.V. All rights reserved
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...
In the simulation of dynamical systems exhibiting an ultraslow decay, differential equations of frac...
In this paper we present a family of explicit formulas for the numerical solution of differential eq...
In this paper we present a family of explicit formulas for the numerical solution of differential eq...
The use of explicit methods in the numerical treatment of differential equations of fractional order...
The use of explicit methods in the numerical treatment of differential equations of fractional order...
AbstractThe use of explicit methods in the numerical treatment of differential equations of fraction...
This paper concerns with numerical methods for the treatment of differential equations of fractional...
This paper concerns with numerical methods for the treatment of differential equations of fractional...
Differential equations of fractional order are believed to be more challenging to compute compared t...
The numerical solution of a variable-order fractional financial system is calculated by using the Ad...
Fractional differential equations have recently demonstrated their importance in a variety of fields...
Fractional differential equations have recently demonstrated their importance in a variety of fields...
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...
In the simulation of dynamical systems exhibiting an ultraslow decay, differential equations of frac...
In this paper we present a family of explicit formulas for the numerical solution of differential eq...
In this paper we present a family of explicit formulas for the numerical solution of differential eq...
The use of explicit methods in the numerical treatment of differential equations of fractional order...
The use of explicit methods in the numerical treatment of differential equations of fractional order...
AbstractThe use of explicit methods in the numerical treatment of differential equations of fraction...
This paper concerns with numerical methods for the treatment of differential equations of fractional...
This paper concerns with numerical methods for the treatment of differential equations of fractional...
Differential equations of fractional order are believed to be more challenging to compute compared t...
The numerical solution of a variable-order fractional financial system is calculated by using the Ad...
Fractional differential equations have recently demonstrated their importance in a variety of fields...
Fractional differential equations have recently demonstrated their importance in a variety of fields...
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...
We introduce a new family of fractional convolution quadratures based on generalized Adams methods f...