Wideband, Real-time Spectro-Temporal RF Identification

H. Nguyen, Marinos Vomvas, Triet Vo Huu, G. Noubir
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引用次数: 7

Abstract

RF emissions' detection, classification, and spectro-temporal localization are crucial not only for tasks relating to understanding, managing, and protecting the RF spectrum, but also for safety and security applications such as detecting intruding drones or jammers. Achieving this goal for wideband spectrum and in real-time is a challenging problem. Existing methods are limited to a small bandwidth, and lack the capability to detect and classify multiple RF emissions in every part of a wide spectrum with a unified detection and classification solution. We present WRIST, a Wideband, Real-time RF Identification system with Spectro-Temporal detection,framework and system. Our resulting deep learning (DL) model is capable to detect, classify, and precisely locate RF emissions in time and frequency using RF samples of 100 MHz spectrum in real-time(over 6Gbps incoming I&Q streams). Such capabilities are made feasible by leveraging a deep learning-based one-stage object detection framework, and transfer learning to a multi-channel visual-based RF signals representation. We also introduce an iterative training approach which leverages synthesized and augmented RF data to efficiently build large labelled datasets of RF emissions. WRIST's detector achieves 90 mean Average Precision even in extremely congested environment in the wild. WRIST model classifies five technologies (Bluetooth, Lightbridge, Wi-Fi, XPD, and ZigBee) and is easily extendable to others.
宽带,实时光谱-时间射频识别
射频发射的检测、分类和光谱时间定位不仅对于理解、管理和保护射频频谱的任务至关重要,而且对于检测入侵无人机或干扰机等安全和安保应用也至关重要。实现这一目标的宽带频谱和实时是一个具有挑战性的问题。现有的方法仅限于小带宽,并且缺乏使用统一的检测和分类解决方案在宽频谱的每个部分检测和分类多个射频发射的能力。我们提出了腕部,一个宽带,实时射频识别系统与光谱-时间检测,框架和系统。我们得到的深度学习(DL)模型能够实时使用100 MHz频谱的RF样本(超过6Gbps的输入I&Q流)检测、分类和精确定位射频发射的时间和频率。通过利用基于深度学习的单阶段目标检测框架,并将学习转移到基于视觉的多通道射频信号表示,这些功能变得可行。我们还介绍了一种迭代训练方法,该方法利用合成和增强的射频数据来有效地构建大型射频发射标记数据集。即使在野外极其拥挤的环境中,WRIST的检测器也能达到90的平均平均精度。腕部模型分为蓝牙、Lightbridge、Wi-Fi、XPD、ZigBee等5种技术,并且可以很容易地扩展到其他技术。
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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