Implementation and verification of DPA-resistant cryptographic DES circuit using Domino-RSL

Katsuhiko Iwai, M. Shiozaki, Anh-Tuan Hoang, Kenji Kojima, T. Fujino
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Abstract

Differential Power Analysis (DPA) which is one of the Side-Channel Attack techniques can easily extract the secret information such as a cryptographic key from the device by analyzing the power consumption. Some DPA-resistant techniques have been proposed to protect the secret information. However, these techniques require special CADs, which balance wiring capacitance and control the timing to activate the logics for enabling signals. We have proposed a DPA-resistant Domino-RSL technique to design and implement by the standard CAD tool easily. This DPA resistance is achieved by eliminating the correlation between power consumption and cryptography operation. In this paper, the design flow of the Domino-RSL technique is presented and the DPA resistance of a DES circuit, which was designed and fabricated with 0.18μm CMOS technology, is evaluated using the Side-channel Attack Standard Evaluation Board (SASEBO). The Domino-RSL DES circuit did never reveal the secret key even with 100,000 wave samples analysis.
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基于Domino-RSL的抗dpa加密DES电路的实现与验证
差分功率分析(DPA)是一种侧信道攻击技术,通过分析设备的功耗,可以很容易地从设备中提取密钥等秘密信息。已经提出了一些抗dpa技术来保护机密信息。然而,这些技术需要特殊的cad来平衡布线电容和控制时序以激活使能信号的逻辑。我们提出了一种抗dpa的Domino-RSL技术,可以通过标准CAD工具轻松地设计和实现。这种DPA阻力是通过消除功耗和加密操作之间的相关性来实现的。本文介绍了Domino-RSL技术的设计流程,并利用SASEBO对采用0.18μm CMOS技术设计制作的DES电路的DPA电阻进行了评估。多米诺- rsl DES电路即使对10万波样本进行分析也没有泄露密钥。
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