There is relation between the impulse response characteristics and the location of poles of transfer function F(s). In this paper, we discuss impulse response for two roots, two times and three times repeated roots for different fractional values of q where 0 .5< q < 1, q = 1, 1 < q < 1.5 in pole motion. The different characters of the impulse response are shown in different numerical examples. The numbers of figures are presented to explain the concepts
This is a comparative study investigating the effects of the controller design method, 'frequency fr...
AbstractIn this paper, an interpolation method based on discrete cosine transform (DCT) is employed ...
The Maxwell equations constitute a formalism for the development of models describing electromagneti...
This paper provides a solution to the fundamental linear fractional order differential equation, nam...
This paper deals with obtaining impulse responses from integer order and fractional ordertransfer fu...
The step response characteristics of first and second order systems are well known. On the other han...
The impulse response of the fractional oscillation equation was investigated, where the damping term...
The decomposition of a fractional linear system is discussed in this paper. It is shown that it can ...
Abstract—In this letter, the design of a fractional order FIR differentiator is investigated. First,...
Fractional processes are widely found in science, technology and engineering systems. In Fractional ...
The exact stability condition for certain class of fractional-order multivalued transfer functions ...
This paper briefly contributes to synthesis of non-integer order frequency filters. Well know...
This paper analyses impulse response functions in the context of vector fractionally integrated time...
The local fractional derivative (LFD) has attracted wide attention in the field of engineering appli...
A subclass of dynamical systems with a time rate of change of acceleration are called Newtonian jerk...
This is a comparative study investigating the effects of the controller design method, 'frequency fr...
AbstractIn this paper, an interpolation method based on discrete cosine transform (DCT) is employed ...
The Maxwell equations constitute a formalism for the development of models describing electromagneti...
This paper provides a solution to the fundamental linear fractional order differential equation, nam...
This paper deals with obtaining impulse responses from integer order and fractional ordertransfer fu...
The step response characteristics of first and second order systems are well known. On the other han...
The impulse response of the fractional oscillation equation was investigated, where the damping term...
The decomposition of a fractional linear system is discussed in this paper. It is shown that it can ...
Abstract—In this letter, the design of a fractional order FIR differentiator is investigated. First,...
Fractional processes are widely found in science, technology and engineering systems. In Fractional ...
The exact stability condition for certain class of fractional-order multivalued transfer functions ...
This paper briefly contributes to synthesis of non-integer order frequency filters. Well know...
This paper analyses impulse response functions in the context of vector fractionally integrated time...
The local fractional derivative (LFD) has attracted wide attention in the field of engineering appli...
A subclass of dynamical systems with a time rate of change of acceleration are called Newtonian jerk...
This is a comparative study investigating the effects of the controller design method, 'frequency fr...
AbstractIn this paper, an interpolation method based on discrete cosine transform (DCT) is employed ...
The Maxwell equations constitute a formalism for the development of models describing electromagneti...