TY - JOUR
T1 - Complexity Reduced Design Procedure of a Fractional Order All-Pass Filter
AU - Kaur, Gagandeep
AU - Ansari, A. Q.
AU - Hashmi, M. S.
N1 - Funding Information:
This work was supported by the Collaborative Research Grant (CRP) Number 021220CRP0222 at Nazarbayev University, Kazakhstan.
Publisher Copyright:
© 2022, The Author(s), under exclusive licence to Springer Science+Business Media, LLC, part of Springer Nature.
PY - 2022/8
Y1 - 2022/8
N2 - In this work, the design of continuous time Fractional Order All-Pass Filter (FOAPF) is proposed. Two different design methods to realize the All-Pass Filter in the fractional domain with mathematical formulations and circuit results are investigated. The first design method is based on Fractional Order Elements (FOEs) where, FOEs of order α and β are utilized to develop a second order All-Pass Filter to the fractional domain. Whereas, in second design method, the fractional filter is approximated into higher order integer filters. The frequency response of the proposed design are validated using MATLAB (2018a) and conjointly with PSPICE (OrCAD 17.2). For first circuit design, FOEs are obtained using a single R–C parallel network. However, for the second circuit design Signal Flow Graph (SFG) approach is utilized. The evaluation of the realized FOAPF is also performed through the Lissajous pattern, AC analysis and Transient Analysis. After the simulations, the achieved results show that the second order FOAPF provides almost 180° phase shift for different values of α, β.
AB - In this work, the design of continuous time Fractional Order All-Pass Filter (FOAPF) is proposed. Two different design methods to realize the All-Pass Filter in the fractional domain with mathematical formulations and circuit results are investigated. The first design method is based on Fractional Order Elements (FOEs) where, FOEs of order α and β are utilized to develop a second order All-Pass Filter to the fractional domain. Whereas, in second design method, the fractional filter is approximated into higher order integer filters. The frequency response of the proposed design are validated using MATLAB (2018a) and conjointly with PSPICE (OrCAD 17.2). For first circuit design, FOEs are obtained using a single R–C parallel network. However, for the second circuit design Signal Flow Graph (SFG) approach is utilized. The evaluation of the realized FOAPF is also performed through the Lissajous pattern, AC analysis and Transient Analysis. After the simulations, the achieved results show that the second order FOAPF provides almost 180° phase shift for different values of α, β.
KW - All-Pass Filter
KW - Fractional Order Systems (FOSs)
KW - Fractional theory
KW - Voltage Mode (VM)
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U2 - 10.1007/s11277-022-09672-4
DO - 10.1007/s11277-022-09672-4
M3 - Article
AN - SCOPUS:85129192656
SN - 0929-6212
VL - 125
SP - 2515
EP - 2535
JO - Wireless Personal Communications
JF - Wireless Personal Communications
IS - 3
ER -