Research and application of the algorithm editing method for improving active noise control performance

In the field of active noise control systems, combining multiple algorithms to improve equalization performance has generated notable interest. Nevertheless, the computation of threshold control parameters for algorithm switching during each iteration leads to a significant increase in computational...

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Main Authors: Haisheng Song, Yahui Dong, Na Yang, Zhiyong Chen
Format: Article
Language:English
Published: SAGE Publishing 2025-09-01
Series:Journal of Low Frequency Noise, Vibration and Active Control
Online Access:https://doi.org/10.1177/14613484251320198
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author Haisheng Song
Yahui Dong
Na Yang
Zhiyong Chen
author_facet Haisheng Song
Yahui Dong
Na Yang
Zhiyong Chen
author_sort Haisheng Song
collection DOAJ
description In the field of active noise control systems, combining multiple algorithms to improve equalization performance has generated notable interest. Nevertheless, the computation of threshold control parameters for algorithm switching during each iteration leads to a significant increase in computational complexity. Additionally, the frequent switching of algorithms poses challenges in fully leveraging the performance of individual algorithms. Therefore, this paper utilizes the film editing concept to introduce the Algorithm Editing Method (AEM). AEM entails selecting appropriate algorithms based on distinctive iteration stages, followed by precise cutting and splicing according to the defined switching coefficient. Appropriate algorithms are implemented at specific iteration stages, eliminating the requirement for frequent algorithm switching during the iterative process. To substantiate the effectiveness of this approach, the FxLMS and Momentum-FxLMS algorithms serve as foundational components of AEM, enhancing convergence performance in an active noise control system. The results show a noteworthy enhancement in convergence speed and reduction of steady-state error, attained without a simultaneous escalation in computational complexity. Additionally, this study extends the application of AEM to improve the system’s robustness against impulse signals. The simulations and tests results demonstrate the method’s effectiveness, achieving a balance of optimized convergence speed, reduction in steady-state error, and minimized computational complexity.
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institution Kabale University
issn 1461-3484
2048-4046
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series Journal of Low Frequency Noise, Vibration and Active Control
spelling doaj-art-4b2f04ba82b34b45ab0f51687f8776e52025-08-20T03:44:13ZengSAGE PublishingJournal of Low Frequency Noise, Vibration and Active Control1461-34842048-40462025-09-014410.1177/14613484251320198Research and application of the algorithm editing method for improving active noise control performanceHaisheng SongYahui DongNa YangZhiyong ChenIn the field of active noise control systems, combining multiple algorithms to improve equalization performance has generated notable interest. Nevertheless, the computation of threshold control parameters for algorithm switching during each iteration leads to a significant increase in computational complexity. Additionally, the frequent switching of algorithms poses challenges in fully leveraging the performance of individual algorithms. Therefore, this paper utilizes the film editing concept to introduce the Algorithm Editing Method (AEM). AEM entails selecting appropriate algorithms based on distinctive iteration stages, followed by precise cutting and splicing according to the defined switching coefficient. Appropriate algorithms are implemented at specific iteration stages, eliminating the requirement for frequent algorithm switching during the iterative process. To substantiate the effectiveness of this approach, the FxLMS and Momentum-FxLMS algorithms serve as foundational components of AEM, enhancing convergence performance in an active noise control system. The results show a noteworthy enhancement in convergence speed and reduction of steady-state error, attained without a simultaneous escalation in computational complexity. Additionally, this study extends the application of AEM to improve the system’s robustness against impulse signals. The simulations and tests results demonstrate the method’s effectiveness, achieving a balance of optimized convergence speed, reduction in steady-state error, and minimized computational complexity.https://doi.org/10.1177/14613484251320198
spellingShingle Haisheng Song
Yahui Dong
Na Yang
Zhiyong Chen
Research and application of the algorithm editing method for improving active noise control performance
Journal of Low Frequency Noise, Vibration and Active Control
title Research and application of the algorithm editing method for improving active noise control performance
title_full Research and application of the algorithm editing method for improving active noise control performance
title_fullStr Research and application of the algorithm editing method for improving active noise control performance
title_full_unstemmed Research and application of the algorithm editing method for improving active noise control performance
title_short Research and application of the algorithm editing method for improving active noise control performance
title_sort research and application of the algorithm editing method for improving active noise control performance
url https://doi.org/10.1177/14613484251320198
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AT nayang researchandapplicationofthealgorithmeditingmethodforimprovingactivenoisecontrolperformance
AT zhiyongchen researchandapplicationofthealgorithmeditingmethodforimprovingactivenoisecontrolperformance