1. A Robust Area-Efficient Physically Unclonable Function With High Machine Learning Attack Resilience in 28-nm CMOS
- Author
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Ying-Wei Wu, Tsung-Te Liu, Chun-Yen Yao, You-Cheng Lai, and Shao-Hong Yang
- Subjects
Authentication ,Subthreshold conduction ,business.industry ,Computer science ,Physical unclonable function ,Topology (electrical circuits) ,Machine learning ,computer.software_genre ,CMOS ,Scalability ,Inverter ,Artificial intelligence ,Electrical and Electronic Engineering ,Resilience (network) ,business ,computer - Abstract
Strong physically unclonable function (PUF) offers a promising solution to low-cost hardware identification and authentication for Internet of Things (IoT) applications. The continuous advancement of machine learning (ML) technology makes the PUF resilience to ML attacks a major design priority. This paper presents a robust and area-efficient strong PUF design with high ML attack resilience. The proposed PUF architecture based on inverter amplifiers operating in the subthreshold region achieves both low energy consumption and high supply and temperature scalability. The proposed nonlinearity topology effectively enhances PUF resilience to various ML attacks with low implementation area and cost. The proposed strong PUF design was designed and implemented using a 28-nm CMOS process. The measurement results show that the proposed PUF design achieves a nearly ideal ML attack resilience of 49.96 % with a small area of 239,857 F², and demonstrates a stable operation across a wide range of supply voltage from 0.5-1.4 V and temperature from -40-100 °C. This represents 3x improvement in area efficiency, 2.25x and 1.08x improvement in operating voltage and temperature range, respectively, compared to the state-of-the-art results.
- Published
- 2022
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