Multi-band magnitude complementary crossover network by using Q-Bernstein filter

This paper presents a multi-band Magnitude Complementary (MC) crossover network by using Q-Bernstein filter (QBF). The prototype low-pass filter is used the Q-Bernstein Polynomial (QBP) to approximate a desired function. The QBF gives parameters which can be changing stop-band attenuation of the filter. The magnitude responses show that the filter gives high attenuation values in the stop-band of degree two. The two-band MC crossover network can be realized by cascading an all-pass filter and a constant voltage of degree one, which sums up to the All-Pass Filter (APF) of degree two. The multiple-bands crossover network can be realized by cascading two identical all-pass filter stages of degree two. The simulation results show that the proposed crossover network has a constant summed magnitude response and also an in-phase response over an audio band.

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Publication Details

Published
2024-09-19
DOI
https://doi.org/10.1117/12.3047211
Primary Topic
Advanced Fiber Optic Sensors
Type
article
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article

Multi-band magnitude complementary crossover network by using Q-Bernstein filter

Dolchai Sookcharoenphol, K. Janchitrapongvej
Advanced Fiber Optic Sensors
article

Multi-band magnitude complementary crossover network by using Q-Bernstein filter

Dolchai Sookcharoenphol, K. Janchitrapongvej
article en

Abstract

This paper presents a multi-band Magnitude Complementary (MC) crossover network by using Q-Bernstein filter (QBF). The prototype low-pass filter is used the Q-Bernstein Polynomial (QBP) to approximate a desired function. The QBF gives parameters which can be changing stop-band attenuation of the filter. The magnitude responses show that the filter gives high attenuation values in the stop-band of degree two. The two-band MC crossover network can be realized by cascading an all-pass filter and a constant voltage of degree one, which sums up to the All-Pass Filter (APF) of degree two. The multiple-bands crossover network can be realized by cascading two identical all-pass filter stages of degree two. The simulation results show that the proposed crossover network has a constant summed magnitude response and also an in-phase response over an audio band.

Southeast Asia University (TH), Southeast Bangkok College (TH), King Mongkut's Institute of Technology Ladkrabang (TH)
Openalex Percentile: Top 87%
Advanced Fiber Optic Sensors
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