Novel Techniques for High-Sensitivity Hardware Trojan Detection Using Thermal and Power Maps

TitleNovel Techniques for High-Sensitivity Hardware Trojan Detection Using Thermal and Power Maps
Publication TypeJournal Article
Year of Publication2014
AuthorsNowroz, A. N., K. Hu, F. Koushanfar, and S. Reda
JournalIEEE Transactions on Computer-Aided Design of Integrated Circuits and Systems
Volume33
Issue12
Pagination1792-1805
Date Published12/2014
ISSN1937-4151
Keywordshardware Trojan detection, principal component analysis (2-DPCA), thermal and power mapping, unsupervised clustering
Abstract

Hardware Trojans are malicious alterations or injections of unwanted circuitry to integrated circuits (ICs) by untrustworthy factories. They render great threat to the security of modern ICs by various unwanted activities such as bypassing or disabling the security fence of a system, leaking confidential information, deranging, or destroying the entire chip. Traditional testing strategies are becoming ineffective since these techniques suffer from decreased sensitivity toward small Trojans because of oversized chip and large amount of process variation present in nanometer technologies. The production volume along with decreased controllability and observability to complex ICs internals make it difficult to efficiently perform Trojan detection using typical structural tests like path latency and leakage power. In this paper, we propose a completely new post-silicon multimodal approach using runtime thermal and power maps for Trojan detection and localization. Utilizing the novel framework, we propose two different Trojan detection methods involving 2-D principal component analysis. First, supervised thresholding in case training data set is available and second, unsupervised clustering which require no prior characterization data of the chip. We introduce 1 regularization in the thermal to power inversion procedure which improves Trojan detection accuracy. To characterize ICs accurately, we perform our experiments in presence of realistic CMOS process variation. Our experimental evaluations reveal that our proposed methodology can detect very small Trojans with 3–4 orders of magnitude smaller power consumptions than the total power usage of the chip, while it scales very well because of the spatial view to ICs internals by the thermal mapping.

URLhttp://ieeexplore.ieee.org/xpl/articleDetails.jsp?reload=true&arnumber=6951867
DOI10.1109/TCAD.2014.2354293
AttachmentSize
TrojanDetection.pdf2.14 MB

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