Harmonic-Resistant Recurrent Neural Network for a Time-Varying Matrix Pseudoinverse

The time-varying matrix pseudoinverse holds significant importance across multiple domains. Previous research has indicated that the zeroing neural network model exhibits significant advantages in addressing this issue. However, identified shortcomings include a lack of capability to suppress disturbances effectively. This paper proposes two harmonic-resistant recurrent neural network (HRRNN) models designed to address both known and unknown frequencies. Specifically, these models take into account derivatives of harmonic-type disturbances, effectively suppressing harmonic disturbances. Our focus on the simulated implementation of the HRRNN model presents a novel approach for addressing the challenge of time-varying matrix inversion in low-power scenarios. The effectiveness is validated through numerical simulation experiments.

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Publication Details

Published
2024-08-08
DOI
https://doi.org/10.1109/cis-ram61939.2024.10673085
Primary Topic
Neural Networks and Applications
Type
article
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article

Harmonic-Resistant Recurrent Neural Network for a Time-Varying Matrix Pseudoinverse

Shuai Li, Yao Mao, Xinglong Chen, Bing Zhang
Neural Networks and Applications
article

Harmonic-Resistant Recurrent Neural Network for a Time-Varying Matrix Pseudoinverse

Shuai Li, Yao Mao, Xinglong Chen, Bing Zhang
article en

Abstract

The time-varying matrix pseudoinverse holds significant importance across multiple domains. Previous research has indicated that the zeroing neural network model exhibits significant advantages in addressing this issue. However, identified shortcomings include a lack of capability to suppress disturbances effectively. This paper proposes two harmonic-resistant recurrent neural network (HRRNN) models designed to address both known and unknown frequencies. Specifically, these models take into account derivatives of harmonic-type disturbances, effectively suppressing harmonic disturbances. Our focus on the simulated implementation of the HRRNN model presents a novel approach for addressing the challenge of time-varying matrix inversion in low-power scenarios. The effectiveness is validated through numerical simulation experiments.

Vol. 15
Chinese Academy of Sciences (CN), University of Oulu (FI)
Openalex Percentile: Top 86%
Neural Networks and Applications
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Harmonic-Resistant Recurrent Neural Network for a Time-Varying Matrix Pseudoinverse — Shuai Li, Yao Mao, et al. · (2024) | TGRS Research Map | TGRS