A Radar Compound Jamming Recognition Method Based on Blind Source Separation

In modern times, radar detection faces the additively compounded jamming signals emitted by multiple jammers. Due to the unknown number, type, and parameters of individual jamming signals, previous jamming recognition algorithms cannot identify all compound cases. During network model training, it b...

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Veröffentlicht in:IEEE transactions on aerospace and electronic systems 2024-12, Vol.60 (6), p.9073-9084
Hauptverfasser: Zhou, Hongping, Wang, Lei, Guo, Zhongyi
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creator Zhou, Hongping
Wang, Lei
Guo, Zhongyi
description In modern times, radar detection faces the additively compounded jamming signals emitted by multiple jammers. Due to the unknown number, type, and parameters of individual jamming signals, previous jamming recognition algorithms cannot identify all compound cases. During network model training, it becomes necessary to predefine the type of compound jamming signals, and it also limits the number of labels for samples, from which only specific compound cases can be recognized. In this article, a recognition strategy named "Separation + Recovery + Recognition" is proposed to identify all the jamming cases of additively compounded jamming effectively. First, the number of signal sources of the received signals from multiple channels is analyzed. Next, the separated single jamming signal is obtained by source separation method from the received additively compounded signals. And then the radar signal recovery network is used to compensate and recover signals that are incompletely separated due to the time-frequency overlap. Finally, the separated and recovered single jamming signals are put into the designed convolutional neural network model for recognition. The simulation results show that the proposed algorithm demonstrates superior performances in recognition and generalization. When the jamming-to-noise ratio is −10 dB, the recognition accuracy of the compound case of five jamming signals can still reach 90% plus.
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Finally, the separated and recovered single jamming signals are put into the designed convolutional neural network model for recognition. The simulation results show that the proposed algorithm demonstrates superior performances in recognition and generalization. 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Due to the unknown number, type, and parameters of individual jamming signals, previous jamming recognition algorithms cannot identify all compound cases. During network model training, it becomes necessary to predefine the type of compound jamming signals, and it also limits the number of labels for samples, from which only specific compound cases can be recognized. In this article, a recognition strategy named "Separation + Recovery + Recognition" is proposed to identify all the jamming cases of additively compounded jamming effectively. First, the number of signal sources of the received signals from multiple channels is analyzed. Next, the separated single jamming signal is obtained by source separation method from the received additively compounded signals. And then the radar signal recovery network is used to compensate and recover signals that are incompletely separated due to the time-frequency overlap. 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source IEEE Electronic Library (IEL)
subjects Algorithms
Artificial neural networks
Blind source separation
compound jamming
Compounds
Feature extraction
Jamming
jamming recognition
neural network application
Noise levels
Parameter identification
Radar
Radar detection
Radar imaging
Recognition
Recovery
Signal processing algorithms
Signal reconstruction
Time-frequency analysis
title A Radar Compound Jamming Recognition Method Based on Blind Source Separation
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