通过热载流子注入老化实现了0.5 v 2.07 fj /b 497-F2 EE/CMOS混合SRAM物理不可克隆功能,误码率< 1E-7

Kunyang Liu, Hongliang Pu, H. Shinohara
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引用次数: 6

摘要

提出了一种基于sram的无误码物理不可克隆功能(PUF)。PUF具有紧凑的位单元,位单元面积为497 F2。它在评估期间从EE SRAM切换到CMOS SRAM模式,实现高原生稳定性,低电压评估和低功耗操作。通过热载流子注入(HCI)在交替方向nMOS负载上的灼烧,其稳定性增强到100%,这不会造成明显的氧化物损伤,也不需要额外的制造工艺或在位电池中添加额外的晶体管。实验结果表明,原型芯片在0.5-0.7 V和-40°C至120°C范围内实现了实际的零比特误差,并且经过相当于~21年运行的加速老化测试,在最坏的VT角处实现了零误差(<1E-7 BER)。PUF稳定工作至0.5 V,能量为2.07 fJ/b,包括评估和读出功率。PUF的安全、紧凑、低功耗和100%稳定的特性使其成为资源受限的物联网安全的绝佳候选者。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A 0.5-V 2.07-fJ/b 497-F2 EE/CMOS Hybrid SRAM Physically Unclonable Function with < 1E-7 Bit Error Rate Achieved through Hot Carrier Injection Burn-in
This paper presents a bit-error free SRAM-based physically unclonable function (PUF) in 130-nm standard CMOS. The PUF has a compact bitcell, with a bitcell area of 497 F2. It switches from EE SRAM to CMOS SRAM mode during evaluation, achieving high native stability, low-voltage evaluation, and low-power operation. Its stability is reinforced to 100% through hot carrier injection (HCI) burn-in on the alternate-direction nMOS load, which causes no visible oxide damage and does not require additional fabrication processes or extra transistors in the bitcell. Experimental results show that the prototype chips achieved actual zero bit error across 0.5-0.7 V and -40°C to 120 °C, as well as zero error (<1E-7 BER) at the worst VT corner after accelerated aging test equivalent to ~21 years of operation. The PUF functions stably down to 0.5 V, with an energy of 2.07 fJ/b, which includes both the evaluation and read-out power. The secure, compact, low-power and 100% stable features of the PUF make it an excellent candidate for the resource-constrained Internet of Things security.
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