InTrust-IoT: Intelligent Ecosystem based on Power Profiling of Trusted device(s) in IoT for Hardware Trojan Detection

Hawzhin Mohammed, Faiq Khalid, P. Sawyer, Gabriella V. Cataloni, S. R. Hasan
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引用次数: 1

Abstract

Modern Resource-Constrained (RC) Internet of Things (IoT) devices are subject to several types of attacks, including hardware-level attacks. Most of the existing state-of-the-art solutions are invasive, require expensive design time interventions, or need dataset generation from non-trusted RC-IoT devices or both. We argue that the health of modern RC-IoT devices requires a final line of defense against possible hardware attacks that go undetected during the IC design and test process. Hence, in this paper, we propose a defense methodology against non-zero-day and zero-day attacks, leveraging machine learning techniques trained on the dataset obtained without design time intervention and using ‘only’ trusted IoT devices. In the process, a complete eco-system is developed where data is generated through a trusted group of devices, and machine learning is done on these trusted datasets. Next, this trusted trained model is deployed in regular IoT systems that contain untrusted devices, where the attack on untrusted devices can be detected in real-time. Our results indicate that for non-zero-day attacks, the proposed technique can concurrently detect DoS and power depletion attacks with an accuracy of about 80%. Similarly, zero-day attack experiments are able to detect the attack without fail as well.
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trust -IoT:基于物联网中可信设备功率分析的智能生态系统,用于硬件木马检测
现代资源受限(RC)物联网(IoT)设备受到多种类型的攻击,包括硬件级攻击。大多数现有的最先进的解决方案都是侵入性的,需要昂贵的设计时间干预,或者需要从不可信的RC-IoT设备生成数据集,或者两者兼而有之。我们认为,现代RC-IoT设备的健康需要最后一道防线,以抵御在IC设计和测试过程中未被检测到的可能的硬件攻击。因此,在本文中,我们提出了一种针对非零日攻击和零日攻击的防御方法,利用在没有设计时间干预的情况下获得的数据集上训练的机器学习技术,并使用“仅”可信的物联网设备。在这个过程中,一个完整的生态系统被开发出来,数据是通过一组可信的设备生成的,机器学习是在这些可信的数据集上完成的。接下来,将此可信训练模型部署在包含不受信任设备的常规物联网系统中,可以实时检测对不受信任设备的攻击。我们的研究结果表明,对于非零日攻击,所提出的技术可以同时检测DoS和功耗攻击,准确率约为80%。同样,零日攻击实验也能够毫无失误地检测到攻击。
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