Leverage Emerging Technologies For DPA-Resilient Block Cipher Design

Yu Bi, Kaveh Shamsi, Jiann-Shiun Yuan, François-Xavier Standaert, Yier Jin
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引用次数: 22

Abstract

Emerging devices have been designed and fabricated to extend Moore's Law. While the benefits over traditional metrics such as power, energy, delay, and area certainly apply to emerging device technologies, new devices may offer additional benefits in addition to improvements in the aforementioned metrics. In this sense, we consider how new transistor technologies could also have a positive impact on hardware security. More specifically, we consider how tunneling FETs (TFET) and silicon nanowire FETs (SiNW FETs) could offer superior protection to integrated circuits and embedded systems that are subject to hardware-level attacks - e.g., differential power analysis (DPA). Experimental results on SiNW FET and TFET CML gates are presented. In addition, simulation results of utilizing TFET CML on a light-weight cryptographic circuit, KATAN32, show that TFET-based current mode logic (CML) can both improve DPA resilience and preserve low power consumption in the target design. Compared to the CMOS-based CML designs, the TFET CML circuit consumes 15 times less power while achieving a similar level of DPA resistance.
利用新兴技术进行dpa弹性分组密码设计
新兴器件的设计和制造延伸了摩尔定律。虽然相对于传统指标(如功率、能源、延迟和面积)的优势当然适用于新兴设备技术,但除了上述指标的改进之外,新设备还可能提供额外的优势。从这个意义上讲,我们考虑新的晶体管技术如何对硬件安全性产生积极影响。更具体地说,我们考虑了隧道场效应管(TFET)和硅纳米线场效应管(SiNW fet)如何为受到硬件级攻击的集成电路和嵌入式系统提供卓越的保护-例如差分功率分析(DPA)。给出了SiNW场效应晶体管和FET CML栅极的实验结果。此外,在轻量级密码电路KATAN32上使用TFET CML的仿真结果表明,基于TFET的电流模式逻辑(CML)既可以提高DPA弹性,又可以在目标设计中保持低功耗。与基于cmos的CML设计相比,TFET CML电路的功耗降低了15倍,同时实现了相似的DPA电阻水平。
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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