Improved Deep Matrix Factorization for Signal Recovery in Random Frequency Diversity Array Radar

Motivated by the success of recent deep learning researches on radar, we consider a deep learning based matrix factorization method for suppressing the high range-angle side-lobes in random frequency diversity array (FDA) radars. While the existing deep matrix factorization approach is designed for real-valued situations and signals of FDA radars are complex-valued cases, we propose two methods to extend the existing approach into complex-valued framework: 1) adjusting the neural network structures and activation functions for complex-valued operations, and 2) constructing a real-valued representation of the original complex-valued input. Simulation results demonstrate that the proposed methods outperform traditional ones in multi-target scenarios.

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Publication Details

Published
2024-11-22
DOI
https://doi.org/10.1109/icsidp62679.2024.10867876
Primary Topic
Antenna Design and Optimization
Type
article
Field-Weighted Citation Impact
0.00

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article

Improved Deep Matrix Factorization for Signal Recovery in Random Frequency Diversity Array Radar

Jie He, Tianyao Huang, Xiao–Ping Zhang, Gang Li et al.
Antenna Design and Optimization
article

Improved Deep Matrix Factorization for Signal Recovery in Random Frequency Diversity Array Radar

Jie He, Tianyao Huang, Xiao–Ping Zhang, Gang Li, Xueqian Wang, Yue Qi, Zijian Lin, Dongguang Guo
article en

Abstract

Motivated by the success of recent deep learning researches on radar, we consider a deep learning based matrix factorization method for suppressing the high range-angle side-lobes in random frequency diversity array (FDA) radars. While the existing deep matrix factorization approach is designed for real-valued situations and signals of FDA radars are complex-valued cases, we propose two methods to extend the existing approach into complex-valued framework: 1) adjusting the neural network structures and activation functions for complex-valued operations, and 2) constructing a real-valued representation of the original complex-valued input. Simulation results demonstrate that the proposed methods outperform traditional ones in multi-target scenarios.

University of Science and Technology Beijing (CN), Tsinghua University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 55%
Antenna Design and Optimization
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