Radar Emitter Signal Recognition based on Contour Lines of Ambiguity Function and Stacked Denoising Auto-encoders

Yunwei Pu, Jiang Guo, Taotao Liu, Haixiao Wu
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Abstract

Aiming at many problems of complex radar emitter signal recognition methods, like poor anti-noise performance and low recognition rate. In this paper, a new recognition method based on contour lines of ambiguity function and stacked denoising auto-encoders is proposed. First, an ambiguity function is processed by the Gaussian smoothing and calculate contour lines by linear interpolation. Then, principal component analysis is used to reduce its feature dimension, retain the main ambiguity energy information. Finally, deep learning stacked denoising auto-encoders are built to learn and extract the deep and more ubiquitous features of contour lines, and classify them through the Softmax classifier. The simulated experiments show that the overall average recognition rate of the six typical radar signals is maintained above 99.83% when the signal-noise ratio is 0dB. Even in the -6dB environment, it also can reach 83.67%, which proves this method has good performance and feasibility under the extremely low signal-noise ratio conditions.
基于模糊函数等高线和叠置去噪自编码器的雷达发射信号识别
针对复杂雷达辐射源信号识别方法存在的抗噪声性能差、识别率低等问题。本文提出了一种基于模糊函数轮廓线和叠置去噪自编码器的图像识别方法。首先对模糊函数进行高斯平滑处理,并用线性插值法计算轮廓线;然后,利用主成分分析对其特征维数进行降维,保留主模糊能量信息;最后,构建深度学习堆叠去噪自编码器,学习提取轮廓线的深度特征和更普遍的特征,并通过Softmax分类器对其进行分类。仿真实验表明,当信噪比为0dB时,6种典型雷达信号的总体平均识别率保持在99.83%以上。即使在-6dB环境下,也能达到83.67%,证明了该方法在极低信噪比条件下具有良好的性能和可行性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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