基于级联码电流镜的低功耗、紧凑的物理不可克隆功能

Shibang Lin, Dejian Liang, Yuan Cao, Xiaofang Pan, Xiaojin Zhao
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引用次数: 5

摘要

本文提出了一种基于级联码电流镜的片上物理不可克隆函数(PUF)。它利用单个晶体管的工艺变化作为电流反射镜的负载,为芯片生成可靠的数字签名。通过在电流模式PUF结构中采用级联编码NMOS晶体管,所提出的PUF极大地提高了输出阻抗。因此,微小的失配电流可以被放大到一个大的输出电压摆幅。此外,每比特的面积开销只有两个最小尺寸的NMOS晶体管:一个用于电流反射镜的负载,另一个用于选择开关。此外,我们采用UMC 65nm CMOS技术进行了广泛的布局后仿真,验证了所提出的PUF设计,每比特功耗低至0.13μW。从设计布局中提取的每个响应位的平均面积为5.47μm2。
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A low power and compact physical unclonable function based on the cascode current mirrors
In this paper, we present a novel on-chip physical unclonable function (PUF) based on the cascode current mirrors. It exploits the process variation of a single transistor as the load of the current mirror to generate a reliable digital signature for the chip. By employing a cascode NMOS transistor in the current-mode PUF architecture, the proposed PUF greatly boosts the output impedance. As a result, the tiny mismatch current can be amplified to a large output voltage swing. In addition, the area overhead per bit is only two minimum-sized NMOS transistors: one for the load of the current mirror, the other one for the selecting switch. Moreover, the proposed PUF design is validated by our extensive post-layout simulation using UMC 65nm CMOS technology, with a power consumption per bit as low as 0.13μW. The average area for each response bit extracted from the design layout is 5.47μm2.
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