A Novel High-Efficiency Variable Parameter Double Integration ZNN Model for Time-Varying Sylvester Equations

In this paper, a High-Efficiency Variable Parameter Double Integration Zeroing Neural Network (HEVPDIZNN) model combining variable parameter function and double integration is proposed to solve the time-varying Sylvester matrix equations, using the decreasing function with a large initial value as the variable parameter. This design achieves faster convergence and higher accuracy after stabilization.The use of double integral terms ensures that the model has higher solution accuracy and effectively suppresses constant noise, linear noise, and quadratic noise. The article proves the convergence and robustness of the model through theoretical analysis. In the comparison experiments with the existing models (MNTZNN, NTPVZNN, NSVPZNN, NSRNN, and ADIZNN), it is confirmed that HEVPDIZNN has faster convergence speed, the average error at the time of stabilization is about 10−5 times that of the existing models, and it has a better suppression of the linear noise, quadratic noise, and constant noise.

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Publication Details

Journal
Mathematics
Published
2025-02-21
DOI
https://doi.org/10.3390/math13050706
Citations
4
Primary Topic
Matrix Theory and Algorithms
Type
article
Field-Weighted Citation Impact
6.02
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article

A Novel High-Efficiency Variable Parameter Double Integration ZNN Model for Time-Varying Sylvester Equations

Hongzhi Xu, Yun Huang, Zhe Peng
4 citations
Mathematics
Matrix Theory and Algorithms
6.02
article

A Novel High-Efficiency Variable Parameter Double Integration ZNN Model for Time-Varying Sylvester Equations

Hongzhi Xu, Yun Huang, Zhe Peng
article en
4 citations

Abstract

In this paper, a High-Efficiency Variable Parameter Double Integration Zeroing Neural Network (HEVPDIZNN) model combining variable parameter function and double integration is proposed to solve the time-varying Sylvester matrix equations, using the decreasing function with a large initial value as the variable parameter. This design achieves faster convergence and higher accuracy after stabilization.The use of double integral terms ensures that the model has higher solution accuracy and effectively suppresses constant noise, linear noise, and quadratic noise. The article proves the convergence and robustness of the model through theoretical analysis. In the comparison experiments with the existing models (MNTZNN, NTPVZNN, NSVPZNN, NSRNN, and ADIZNN), it is confirmed that HEVPDIZNN has faster convergence speed, the average error at the time of stabilization is about 10−5 times that of the existing models, and it has a better suppression of the linear noise, quadratic noise, and constant noise.

MathematicsVol. 13(5)
Jishou University (CN)
Openalex Percentile: Top 4%
Matrix Theory and Algorithms
6.02
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