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Can EDA tools address Trojan horses? 


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Yes, Electronic Design Automation (EDA) tools can address Trojan horses through various approaches. Researchers have proposed security-aware EDA tools that assist in identifying and removing security threats like hardware Trojans. One approach involves a self-training hardware Trojan confrontation framework based on machine learning embedded in EDA tools, which can detect, locate, and delete hardware Trojans with high accuracy. Additionally, a runtime EM side-channel analysis workflow using a convolutional neural network has been developed to identify known and new hardware Trojans implemented inside Integrated Circuits (ICs) with high accuracy. Furthermore, a Tool for Automated INsertion of Trojans (TAINT) has been introduced to evaluate FPGA designs against known and unknown attacks by inserting Trojans at different stages in the design cycle. These advancements showcase the capability of EDA tools in addressing Trojan horses effectively.

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Yes, EDA tools like TAINT can automatically insert Trojans into FPGA designs for testing against hardware-based attacks, including Trojan horses, at various design stages.
Yes, EDA tools can address Trojan horses through a self-training hardware Trojan confrontation framework based on machine learning, achieving high detection rates for both known and unknown hardware Trojans.
Yes, security-aware EDA tools can address hardware Trojans by utilizing quantitative information flow analysis to identify and remove security threats in the design while considering performance and area constraints.
Not addressed in the paper.

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