This paper provides a solution to the fundamental linear fractional order differential equation, namely, (sub c)d(sup q, sub t) + ax(t) = bu(t). The impulse response solution is shown to be a series, named the F-function, which generalizes the normal exponential function. The F-function provides the basis for a qth order "fractional pole". Complex plane behavior is elucidated and a simple example, the inductor terminated semi- infinite lossy line, is used to demonstrate the theory
30 pages, the title is changed, typos are corrected, to appear in Appl. Math. ComputExplicit solutio...
A brief introduction to the fractional continuous-time linear systems is presented. It will be done ...
International audienceIn this article, we propose a robust method to compute the output of a fractio...
Chapters 1, 2, 3, and 4 provide background material. Chapter 5 describes new results on the behaviou...
In this work we used the Laplace transform method to solve linear fractional-order differential equa...
In this article, we show that Laplace transform can be applied to fractional system. To this end, s...
The order of fractional differential equations (FDEs) has been proved to be of great importance in a...
This paper presents approximate solutions of linear system of fractional differential equations (FDE...
Dynamical behavior of many nonlinear systems can be described by fractional-order equations. This st...
IEE Proceedings - Vision, Image, and Signal Processing, Vol. 147, nº 1In the paper, the class of con...
A multidimensional, modified, fractional-order B-polys technique was implemented for finding solutio...
AbstractThe topic of fractional calculus (derivatives and integrals of arbitrary orders) is enjoying...
Seria : Monografie t. 12 / Komitet Automatyki i Robotyki Polskiej Akademii Nauk 1640-8969This book i...
AbstractA useful representation of fractional order systems is the state space representation. For t...
Abstract The solutions of system of linear fractional differential equations of incommensurate order...
30 pages, the title is changed, typos are corrected, to appear in Appl. Math. ComputExplicit solutio...
A brief introduction to the fractional continuous-time linear systems is presented. It will be done ...
International audienceIn this article, we propose a robust method to compute the output of a fractio...
Chapters 1, 2, 3, and 4 provide background material. Chapter 5 describes new results on the behaviou...
In this work we used the Laplace transform method to solve linear fractional-order differential equa...
In this article, we show that Laplace transform can be applied to fractional system. To this end, s...
The order of fractional differential equations (FDEs) has been proved to be of great importance in a...
This paper presents approximate solutions of linear system of fractional differential equations (FDE...
Dynamical behavior of many nonlinear systems can be described by fractional-order equations. This st...
IEE Proceedings - Vision, Image, and Signal Processing, Vol. 147, nº 1In the paper, the class of con...
A multidimensional, modified, fractional-order B-polys technique was implemented for finding solutio...
AbstractThe topic of fractional calculus (derivatives and integrals of arbitrary orders) is enjoying...
Seria : Monografie t. 12 / Komitet Automatyki i Robotyki Polskiej Akademii Nauk 1640-8969This book i...
AbstractA useful representation of fractional order systems is the state space representation. For t...
Abstract The solutions of system of linear fractional differential equations of incommensurate order...
30 pages, the title is changed, typos are corrected, to appear in Appl. Math. ComputExplicit solutio...
A brief introduction to the fractional continuous-time linear systems is presented. It will be done ...
International audienceIn this article, we propose a robust method to compute the output of a fractio...