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| Citation: | YU Xianxiang, LU Qinghui, YANG Jing, et al. Frequency domain cooperative waveform design method for short baseline transceiver[J]. Journal of Radars, 2022, 11(2): 227–239. doi: 10.12000/JR22014
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Frequency Domain Cooperative Waveform Design Method for Short Baseline Transceiver
doi: 10.12000/JR22014
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Abstract
Multinode transceiver division systems can cooperate across multiple domains, including space, time, frequency, and energy, through waveforms. Moreover, it can provide greater anti-interference degrees of freedom than that from a single radar. Through this paper, we propose a frequency domain cooperative waveform design method based on two short baseline transceiver separation systems to resist multi-mainlobe interference. First, a narrowband detection signal with a locally good autocorrelation level was optimized using the Majorization-Minimization-based Proximal Method of Multipliers (MM-PMM) algorithm. Then, according to the characteristics of the frequency hopping of the narrowband detection signal, the corresponding wideband signal with a null spectrum was optimized as the cover signal of a narrowband signal. Further, two transmitting nodes were used to transmit the narrowband and wideband signals. Finally, a signal processing method based on phase-coherent and nonphase-coherent joint accumulation, with known frequency agility was used to process the cooperative waveform in the frequency domain. Numerical simulation results demonstrated the convergence of the MM-PMM algorithm, principle of frequency domain cover, and effectiveness of the frequency domain cooperative waveform design method against multi-mainlobe interference. -
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References
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- Figure 1. Schematic diagram of frequency domain cooperative waveform
- Figure 2. Schematic diagram of frequency domain cooperative waveform power configuration
- Figure 3. Frequency domain characteristics of wideband cover signal
- Figure 4. Frequency domain cooperative waveform signal processing method
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Figure 5. The normalized autocorrelation sidelobe levelof
${\varOmega _1}$ - Figure 6. Convergence analysis under different penalty parameters
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Figure 7. The normalized autocorrelation sidelobe levelof
${\varOmega _1}$ - Figure 8. The narrowband detection signal properties
- Figure 9. The power spectral density of wideband cover signal
- Figure 10. The power spectral density of frequency domain cooperative waveform pair
- Figure 11. The R-D diagram comparison of anti-noise frequency modulation interference effect
- Figure 12. Generation principle of chopping-interleaving
- Figure 13. The R-D diagram comparison of anti-noise frequency modulation and smart combination interference effect