Hardware Trojan detection through golden chip-free statistical side-channel fingerprinting

Yu Liu, K. Huang, Y. Makris
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引用次数: 97

Abstract

Statistical side channel fingerprinting is a popular hardware Trojan detection method, wherein a parametric signature of a chip is collected and compared to a trusted region in a multi-dimensional space. This trusted region is statistically established so that, despite the uncertainty incurred by process variations, the fingerprint of Trojan-free chips is expected to fall within this region while the fingerprint of Trojan-infested chips is expected to fall outside. Learning this trusted region, however, assumes availability of a small set of trusted (i.e. “golden”) chips. Herein, we rescind this assumption and we demonstrate that an almost equally effective trusted region can be learned through a combination of a trusted simulation model, measurements from process control monitors (PCMs) which are typically present either on die or on wafer kerf, and advanced statistical tail modeling techniques. Effectiveness of this method is evaluated using silicon measurements from two hardware Trojan-infested versions of a wireless cryptographic integrated circuit.
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硬件木马检测通过黄金芯片无统计侧通道指纹
统计侧信道指纹是一种流行的硬件木马检测方法,该方法收集芯片的参数签名并将其与多维空间中的可信区域进行比较。这个可信区域是通过统计建立的,因此,尽管工艺变化带来了不确定性,但没有木马病毒的芯片的指纹预计会落在这个区域内,而感染木马病毒的芯片的指纹预计会落在这个区域外。然而,学习这个可信区域需要假设有一小部分可信(即“黄金”)芯片的可用性。在这里,我们取消了这个假设,我们证明了一个几乎同样有效的可信区域可以通过可信仿真模型的组合来学习,过程控制监视器(pcm)的测量通常存在于模具或晶圆切口上,以及先进的统计尾部建模技术。该方法的有效性是通过两个硬件木马感染版本的无线加密集成电路的硅测量来评估的。
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