A Robust RF Fingerprint Extraction Scheme for GNSS Spoofing Detection

Chengjun Guo, Zhongpei Yang
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Abstract

Global navigation satellite systems (GNSS) have played an important role in space stations, aviation, maritime and mass transit. One of the main disadvantages of GNSS is their vulnerability to spoofing. A successful spoofing attack can have serious consequences. In regards to this issue, our method of GNSS spoofing detection based on radio frequency fingerprint (RFF) is considered a promising technology. Due to manufacturing defects, even GNSS transmitters of the same model exhibit subtle differences known as RFF, which possess uniqueness and persistence, and can be considered as the DNA of GNSS transmitters. Our method autonomously extracts the RFF from the received signals by exploiting deep learning, which avoids the laborious manual feature selection process compared to other methods. The time-frequency representation of the signal is used as input to the deep learning. We evaluate Shorttime Fourier Transform (STFT) time-frequency representation method. We explore the possibility of using the Support Vector Data Description (SVDD) for GNSS spoofing detection. We evaluate two deep learning-based GNSS signal classification methods. One is RFF identification based on the original signal, namely IQ+CNN in this article, which preprocesses the collected IQ samples and directly inputs them into the deep learning model for training and classification. This method completely uses the deep learning model to learn the physical layer characteristics of wireless signal. The second is RFF identification based on two-dimensional representation of signals, namely STFT+RESNET50 in this article, which aims to extract RFF in the time-frequency domain. The experimental dataset is generated by software, and we compare the classification accuracy of the two methods at different SNRs. The experiments show that our method is reasonable for GNSS spoofing detection. In addition, the research of RFF-based GNSS spoofing detection is still in its infancy, and we promote the development of this field.
一种用于GNSS欺骗检测的射频指纹提取方案
全球卫星导航系统(GNSS)在空间站、航空、海上和公共交通等领域发挥了重要作用。GNSS的主要缺点之一是容易受到欺骗。成功的欺骗攻击可能会产生严重的后果。针对这一问题,我们的基于射频指纹(RFF)的GNSS欺骗检测方法被认为是一种很有前途的技术。由于制造缺陷,即使是同一型号的GNSS发射机也会出现细微的差异,这种差异被称为RFF,具有独特性和持久性,可以认为是GNSS发射机的DNA。我们的方法利用深度学习从接收信号中自主提取RFF,避免了与其他方法相比费力的手动特征选择过程。信号的时频表示被用作深度学习的输入。研究短时傅里叶变换时频表示方法。我们探索了使用支持向量数据描述(SVDD)进行GNSS欺骗检测的可能性。我们评估了两种基于深度学习的GNSS信号分类方法。一种是基于原始信号的RFF识别,本文即IQ+CNN,将采集到的IQ样本进行预处理,直接输入深度学习模型进行训练和分类。该方法完全利用深度学习模型来学习无线信号的物理层特性。二是基于信号二维表示的RFF识别,即本文的STFT+RESNET50,目的是提取时频域的RFF。通过软件生成实验数据集,比较两种方法在不同信噪比下的分类准确率。实验表明,该方法对GNSS欺骗检测是合理的。此外,基于射频的GNSS欺骗检测的研究还处于起步阶段,我们推动了该领域的发展。
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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