Radio Frequency Identification for Drones Using Spectrogram and CNN

Chaozheng Xue, Tao Li, Yongzhao Li, Y. Ruan, Rui Zhang
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引用次数: 1

Abstract

Over the past few years, commercial drones have grown in popularity. However, the pervasive use of drones may pose a range of secure risks to sensitive areas such as airports and military bases. Hence, drone detection and identification are critical and necessary for governments and security agencies. This paper proposes a radio frequency identification (RFI) system for drones based on spectrogram and convolutional neural network (CNN). Specifically, spectrogram is used to represent fine-grained time-frequency characteristics of drone signals. Then CNN is designed to infer drone types by identifying their spectrograms. In practice, drones have different operating channels, and any one of them can be selected for signal transmission. It means that the carrier frequencies of their signals are unknown, which may result in misclassifications. To address this problem, we collect drone signals from all potential frequency bands, and demonstrate that carrier frequency offset (CFO) compensation can significantly improve the system performance. Experimental evaluation is performed in real wireless environments involving 6 drones and a Universal Software Radio Peripheral (USRP) X310 platform. Moreover, the proposed spectrogram-based CNN can reach the best performance compared with the IQ-based and FFT-based CNNs. The classification accuracy is beyond 98% for drones operating on arbitrary channels.
基于频谱图和CNN的无人机射频识别
在过去的几年里,商用无人机越来越受欢迎。然而,无人机的广泛使用可能会给机场和军事基地等敏感地区带来一系列安全风险。因此,无人机的探测和识别对于政府和安全机构来说至关重要。提出了一种基于频谱图和卷积神经网络(CNN)的无人机射频识别系统。具体来说,频谱图用于表示无人机信号的细粒度时频特性。然后CNN被设计为通过识别它们的频谱图来推断无人机的类型。在实际操作中,无人机有不同的操作通道,可以选择其中任意一个通道进行信号传输。这意味着它们信号的载波频率是未知的,这可能导致错误分类。为了解决这个问题,我们从所有可能的频段收集无人机信号,并证明载波频率偏移(CFO)补偿可以显着提高系统性能。实验评估在真实的无线环境中进行,涉及6架无人机和通用软件无线电外设(USRP) X310平台。此外,与基于iq和fft的CNN相比,本文提出的基于谱图的CNN可以达到最好的性能。在任意频道上操作的无人机,分类准确率超过98%。
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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