A Highly Stable Leakage-Based Silicon Physical Unclonable Functions

D. Ganta, Vignesh Vivekraja, K. Priya, L. Nazhandali
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引用次数: 13

Abstract

In this paper, we propose a new silicon PUF using efficient analog components that can be fabricated on a standard CMOS process. Our proposed design is built using leakage sensors with each measuring the leakage current of a transistor. Multiple identical leakage sensors are fabricated on the same chip. Due to manufacturing process variations, each sensor produces slightly different leakage values that can be compared in order to create a digital identification (ID) for the chip. Our results show that the proposed PUF is able to effectively identify a population of ICs. We also study the stability of our design with respect to temporary environmental variations like temperature and supply voltage. Our results show that nearly ideal stability can be achieved with minimal area overhead in our design. Comparing with a popular ring oscillator PUF architecture of the same entropy, our proposed PUF consumes about 80% less power, occupies about 85% less area, and has a high level of stability across a wide range of temperatures.
一种高度稳定的基于泄漏的硅物理不可克隆功能
在本文中,我们提出了一种新的硅PUF,它使用高效的模拟元件,可以在标准的CMOS工艺上制造。我们提出的设计是使用泄漏传感器,每个传感器测量一个晶体管的泄漏电流。在同一芯片上制造了多个相同的泄漏传感器。由于制造工艺的变化,每个传感器产生的泄漏值略有不同,可以进行比较,以便为芯片创建数字识别(ID)。我们的结果表明,所提出的PUF能够有效地识别ic种群。我们还研究了我们的设计在温度和电源电压等临时环境变化方面的稳定性。我们的结果表明,在我们的设计中,几乎理想的稳定性可以用最小的面积开销来实现。与流行的具有相同熵的环形振荡器PUF结构相比,我们提出的PUF功耗降低约80%,占地面积减少约85%,并且在广泛的温度范围内具有高水平的稳定性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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