The local fractional derivative (LFD) has attracted wide attention in the field of engineering application. In this paper, the LFD is used to model the fractional Sallen-Key filter for the first time. The non-differentiable(ND) transfer function is obtained by using the local fractional Laplace transform(LFLT). And the amplitude frequency response is analyzed in detail for different fractional order ς. It is found that the fractional Sallen-Key filter becomes the ordinary one in the special case ς = 1. The obtained results of this paper show the powerful ability of local fractional calculus in the analysis of complex problems arising in engineering fields
AbstractWe present the necessary conditions for the existence of the Kolwankar–Gangal local fraction...
Fractional processes are widely found in science, technology and engineering systems. In Fractional ...
IEE Proceedings - Vision, Image, and Signal Processing, Vol. 147, nº 1In the paper, the class of dis...
Abstract As an important electronic device, filter is applied to all kinds of electronic products. I...
Abstract Local fractional calculus has gained wide attention in the field of circuit design. In this...
This work aims to generalize the integer order Sallen-Key filters into the fractional-order domain. ...
IEE Proceedings - Vision, Image, and Signal Processing, Vol. 147, nº 1In the paper, the class of con...
Abstract—In this letter, the design of a fractional order FIR differentiator is investigated. First,...
The paper presents analysis of the second order band-pass and notch filter with a dynamic damping fa...
[[abstract]]In this paper, the design of a fractional order FIR differentiator is investigated. Firs...
AbstractIn the present paper, local fractional continuous non-differentiable functions in fractal sp...
[[abstract]]In this paper, the designs of fractional derivative constrained one-dimensional (1-D) an...
AbstractIn this paper, an interpolation method based on discrete cosine transform (DCT) is employed ...
In this paper it is illustrated that currently there is a new element in electronics - fractional or...
<p></p><p>Abstract A natural extension of differential calculus, initially proposed by l'Hôpital in ...
AbstractWe present the necessary conditions for the existence of the Kolwankar–Gangal local fraction...
Fractional processes are widely found in science, technology and engineering systems. In Fractional ...
IEE Proceedings - Vision, Image, and Signal Processing, Vol. 147, nº 1In the paper, the class of dis...
Abstract As an important electronic device, filter is applied to all kinds of electronic products. I...
Abstract Local fractional calculus has gained wide attention in the field of circuit design. In this...
This work aims to generalize the integer order Sallen-Key filters into the fractional-order domain. ...
IEE Proceedings - Vision, Image, and Signal Processing, Vol. 147, nº 1In the paper, the class of con...
Abstract—In this letter, the design of a fractional order FIR differentiator is investigated. First,...
The paper presents analysis of the second order band-pass and notch filter with a dynamic damping fa...
[[abstract]]In this paper, the design of a fractional order FIR differentiator is investigated. Firs...
AbstractIn the present paper, local fractional continuous non-differentiable functions in fractal sp...
[[abstract]]In this paper, the designs of fractional derivative constrained one-dimensional (1-D) an...
AbstractIn this paper, an interpolation method based on discrete cosine transform (DCT) is employed ...
In this paper it is illustrated that currently there is a new element in electronics - fractional or...
<p></p><p>Abstract A natural extension of differential calculus, initially proposed by l'Hôpital in ...
AbstractWe present the necessary conditions for the existence of the Kolwankar–Gangal local fraction...
Fractional processes are widely found in science, technology and engineering systems. In Fractional ...
IEE Proceedings - Vision, Image, and Signal Processing, Vol. 147, nº 1In the paper, the class of dis...