Innovative Transient Study of Tri-Bandpass Negative Group Delay Applied to Microstrip Barcode-Circuit

A transient study of bandpass (BP) negative group delay (NGD) function is devoted in this paper. The transient analysis is applied to an original topology of NGD barcode-shape microstrip circuit. The performed investigation explains how to realize the transient analysis of tri-band NGD circuit. The...

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Veröffentlicht in:IEEE access 2021, Vol.9, p.115030-115041
Hauptverfasser: Wu, Lili, Wan, Fayu, Mefteh, Rym Assila Belhadj, Vauche, Remy, Chan, George, Zhou, Xiang, Haddad, Fayrouz, Rahajandraibe, Wenceslas, Ravelo, Blaise
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container_title IEEE access
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creator Wu, Lili
Wan, Fayu
Mefteh, Rym Assila Belhadj
Vauche, Remy
Chan, George
Zhou, Xiang
Haddad, Fayrouz
Rahajandraibe, Wenceslas
Ravelo, Blaise
description A transient study of bandpass (BP) negative group delay (NGD) function is devoted in this paper. The transient analysis is applied to an original topology of NGD barcode-shape microstrip circuit. The performed investigation explains how to realize the transient analysis of tri-band NGD circuit. The time-domain (TD) parametrization of the test is established from the BP-NGD specifications of the circuit under test (CUT) based on the S-parameter model. The input signal is a Gaussian pulse characterized in function of the NGD bandwidth (BW) and center frequency. The feasibility of the BP-NGD transient study is illustrated with experimentation based on ultra-wide band (UWB) pulse generator. As proof-of-concept, barcode NGD circuit exhibiting tri-band NGD value-center frequency-bandwidth, (−5.9 ns, 2.128 GHz, 20 MHz), (−7.4 ns, 2.3 GHz, 14 MHz) and (−4.8 ns, 2.42 GHz, 14 MHz) has been fabricated and tested. The transient simulations and experiences confirm that the output signal envelopes of the barcode NGD prototype present leading and tailing edges in time-advance of input ones when the carrier frequency is set equal to the NGD center frequency.
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The transient analysis is applied to an original topology of NGD barcode-shape microstrip circuit. The performed investigation explains how to realize the transient analysis of tri-band NGD circuit. The time-domain (TD) parametrization of the test is established from the BP-NGD specifications of the circuit under test (CUT) based on the S-parameter model. The input signal is a Gaussian pulse characterized in function of the NGD bandwidth (BW) and center frequency. The feasibility of the BP-NGD transient study is illustrated with experimentation based on ultra-wide band (UWB) pulse generator. As proof-of-concept, barcode NGD circuit exhibiting tri-band NGD value-center frequency-bandwidth, (−5.9 ns, 2.128 GHz, 20 MHz), (−7.4 ns, 2.3 GHz, 14 MHz) and (−4.8 ns, 2.42 GHz, 14 MHz) has been fabricated and tested. 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subjects Bandpass
bandpass (BP) negative group delay (NGD)
Bandwidths
Bar codes
barcode topology
Carrier frequencies
Circuits
Coupled lines (CLs)
distributed circuit
Engineering Sciences
Experimentation
Group delay
microwave circuit
Microwave circuits
Microwave communication
Microwave filters
Microwave measurement
Microwave transistors
modelling method
Parameterization
Pulse generators
time-domain experimentation
Topology
Transient analysis
Ultrawideband
title Innovative Transient Study of Tri-Bandpass Negative Group Delay Applied to Microstrip Barcode-Circuit
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