一种基于路径延迟故障的硬件木马不可逆插入方法

Akira Ito, Rei Ueno, N. Homma, T. Aoki
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摘要

提出了一种基于路径延迟故障的不可逆的硬件木马(HT)隐形插入方法,称为路径延迟HT (PDHT)。虽然包括蒙特卡罗测试在内的传统方法很难检测到PDHT,但其实用性仍然不清楚,因为PDHT使用的很少敏化的路径是确定的选择和利用。这种确定性方法表明,我们可以通过它的反向方法找到可能的pdht插入路径。此外,传统的方法使用遗传算法在选定的路径上增加额外的延迟以引起路径延迟故障,因此,我们很难评估电路对PDHT的电阻/脆弱性。本文首先提出了一种选择足够稀有路径来随机插入PDHT的新方法。然后,我们证明了PDHT的可检测性/隐身性与切换活动(即故障效应)有关,并提出了一种新的系统方法来诱导路径延迟故障,而不是遗传算法。我们通过实验PDHT插入和蒙特卡罗测试证明,与传统方法相比,我们的方法插入的PDHT是足够不可检测的。
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A Non-Reversible Insertion Method for Hardware Trojans Based on Path Delay Faults
This paper presents a non-reversible method for stealthily inserting hardware Trojan (HT) based on a path delay fault called Path Delay HT (PDHT). While PDHT is hardly detected by the conventional methods including Monte-Carlo tests, its practicality is still unclear because a rarely sensitized path used for PDHT is selected and exploited in a deterministic manner. Such deterministic method indicates that we can find possible PDHT-inserted paths by its reversed method. In addition, the conventional method uses a genetic algorithm to add extra delays onto the selected path for inducing a path delay fault, and therefore, we have a difficulty in evaluating the resistance/vulnerability of a circuit to PDHT. This paper first presents a new method for selecting sufficiently rare paths to insert PDHT at random. We then show that the detectability/stealthiness of PDHT is related to switching activity (i.e., glitch effect), and present a new systematic method for inducing a path delay fault instead of GA. We demonstrate through an experimental PDHT-insertion and a Monte-Carlo test that the PDHT inserted by our method is sufficiently undetectable in comparison with the conventional method.
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