Simultaneous Design of PCFM Waveforms and Receive Filters Toward ISRJ Suppression

The interrupted sampling repeater jamming (ISRJ) is a widely used coherent jamming technique. A proper waveform design can effectively suppress or mitigate the ISRJ. Even if several phase-coded waveform design methods have been proposed for this purpose, frequency modulation (FM) waveforms remain th...

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Veröffentlicht in:IEEE geoscience and remote sensing letters 2024, Vol.21, p.1-5
Hauptverfasser: Qiu, Xiangfeng, Jiang, Weidong, Zhang, Xinyu, Greco, Maria Sabrina, Gini, Fulvio
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Jiang, Weidong
Zhang, Xinyu
Greco, Maria Sabrina
Gini, Fulvio
description The interrupted sampling repeater jamming (ISRJ) is a widely used coherent jamming technique. A proper waveform design can effectively suppress or mitigate the ISRJ. Even if several phase-coded waveform design methods have been proposed for this purpose, frequency modulation (FM) waveforms remain the most common choice for high-power transmitters, as they do not introduce significant distortions in real radar systems. In this letter, we propose a design method for multiple-input multiple-output (MIMO) radar that simultaneously derives the optimal polyphase-coded FM (PCFM) waveforms and the receive filters to mitigate the ISRJ. Specifically, we first model the joint design problem as a nonconvex bivariate optimization problem and we minimize the matching error between the desired and practical transmit-receive correlation functions for different channels. Subsequently, we adopt an alternating strategy to update the PCFM waveforms and receive filters sequentially. More specifically, gradient-based algorithms in Euclidean space and Riemannian manifold space are adopted to derive the optimal waveforms and filters, respectively. The proposed method is characterized by a low computational cost, thanks to its FFT-based implementation. Numerical analysis shows the effectiveness of the proposed method.
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A proper waveform design can effectively suppress or mitigate the ISRJ. Even if several phase-coded waveform design methods have been proposed for this purpose, frequency modulation (FM) waveforms remain the most common choice for high-power transmitters, as they do not introduce significant distortions in real radar systems. In this letter, we propose a design method for multiple-input multiple-output (MIMO) radar that simultaneously derives the optimal polyphase-coded FM (PCFM) waveforms and the receive filters to mitigate the ISRJ. Specifically, we first model the joint design problem as a nonconvex bivariate optimization problem and we minimize the matching error between the desired and practical transmit-receive correlation functions for different channels. Subsequently, we adopt an alternating strategy to update the PCFM waveforms and receive filters sequentially. 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subjects Algorithms
Alternative optimization
Bivariate analysis
Correlation
Correlation analysis
Cost analysis
Design
Design optimization
Euclidean geometry
Euclidean space
Filters
Frequency dependence
Frequency modulation
interrupted sampling repeater jamming (ISRJ)
Jamming
manifold optimization
Manifolds
Numerical analysis
Optimization
Radar
Radar equipment
Riemann manifold
Transmitters
Vectors
waveform design
Waveforms
title Simultaneous Design of PCFM Waveforms and Receive Filters Toward ISRJ Suppression
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