Fault-tolerant reversible logic gate-based RO-PUF design

Mridula Karmakar , Syed Farah Naz , Ambika Prasad Shah
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引用次数: 2

Abstract

Physically Unclonable Function (PUF) is an emerging modern approach to the security concerns of the physical systems which require the protection of sensitive data. PUF generates unique, reliable, and secure responses which can be utilized for cryptographic applications. In this paper, a fault-tolerant reversible logic gate-based RO PUF is proposed. We utilized a fault-tolerant reversible logic Double Feynman Gate in place of conventional inverters to design the ring oscillators (RO). The proposed RO PUF designs implemented and evaluated on the Basys-3 Artix-7 FPGA board. The PUF parameters such as uniqueness, reliability, and uniformity were analyzed based on the experimental results. The empirical results show that the proposed RO PUF has uniqueness and reliability of 0.49 and 85.95%, respectively. The inter-chip and intra-chip uniqueness for the proposed design is 23% and 25.5%, respectively higher than the conventional RO PUF design. This fault-tolerant reversible logic gate-based RO PUF design shows better uniqueness, reliability, and uniformity than other considered PUF designs.

基于容错可逆逻辑门的RO-PUF设计
物理不可控制功能(PUF)是一种新兴的现代方法,用于解决需要保护敏感数据的物理系统的安全问题。PUF生成可用于加密应用程序的唯一、可靠和安全的响应。本文提出了一种基于容错可逆逻辑门的RO PUF。我们使用容错可逆逻辑双费曼门代替传统的反相器来设计环形振荡器(RO)。所提出的RO PUF设计在Basys-3 Artix-7 FPGA板上实现并评估。基于实验结果分析了PUF的唯一性、可靠性和均匀性等参数。实验结果表明,所提出的RO PUF的唯一性和可靠性分别为0.49%和85.95%。所提出的设计的芯片间和芯片内唯一性分别比传统的RO PUF设计高23%和25.5%。这种基于容错可逆逻辑门的RO PUF设计比其他考虑的PUF设计显示出更好的唯一性、可靠性和一致性。
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