基于不完全脉冲稀疏信号重构的波束扫描雷达DOA估计

Ran Wu, Yan Zhang, Lihua Ni, Kecheng Zhang, Ning Liu, Qun Wan
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引用次数: 1

摘要

到达方向(DOA)是一种常用的源定位测量方法。然而,现代电子侦察的接收设备在复杂密集的电磁环境中无法完全拦截脉冲信号。因此,很难准确估计其DOA,特别是在多个目标的情况下。为了解决这一问题,我们提出了一种稀疏超分辨DOA方法来实现不完全脉冲的DOA估计。结合压缩感知理论,将复杂的DOA估计问题转化为基于最小1范数优化准则的基追踪(BP)方法。该方法通过求解构成信号的最优稀疏向量来估计DOA,该稀疏向量可以检测到相同距离-方位角单位内的多个目标。此外,与传统的BP测向方法相比,该方法在保证测向性能的同时降低了对脉冲完整性的要求。仿真结果支持了理论分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
DOA estimation for beam scanning radar based on sparse signal reconstruction with incomplete pulse
Direction of Arrival (DOA) is one of the commonly used measurement for source localization. However, the receiving equipment of modern electronic reconnaissance can not completely intercept the pulse signal in the complex and dense electromagnetic environment. Thus, it is not easy to accurately estimate its DOA, especially in the case of multiple targets. In order to solve this problem, we propose a sparse super-resolution DOA method to achieve DOA estimation incomplete pulse. Combined with compressed sensing theory, the complex DOA estimation problem is transformed into Basis Pursuit (BP) method based on the minimum ℓ1 norm optimization criterion. The method estimates the DOA by solving the optimal sparse vector that constitutes the signal and can detect multiple targets in the same range-azimuth unit. In addition, compared with the traditional direction-finding method using the BP method, our method can guarantee the performance of direction-finding while reducing the requirement of pulse integrity. The simulation results support the theoretical analysis.
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