侧信道攻击与对策的电源噪声感知评估框架

Jianlei Yang, Chenguang Wang, Yici Cai, Qiang Zhou
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引用次数: 2

摘要

侧信道攻击(SCA)的目的是通过分析物理参数的泄露,从加密芯片中提取秘密信息。基于功率分析的SCA是一种通过监控加密芯片的功耗来获取密钥的流行方法。然而,大多数SCA评估方法都是在FPGA平台上执行的,而许多寄生物理效应在加密芯片被封装之前无法被揭示。由于相应的测量噪声,粗略地忽略这些影响将大大增加攻击难度。电源噪声被认为是基于SCA的功率分析的关键因素。从密码系统设计到物理设计,阐述了一种实用侧信道攻击的电源噪声感知评估框架。在物理设计阶段实现片上供电网络。从而可以根据布置图后的实施情况,对电网供电噪声进行探讨。此外,由于芯片上的去电容对输电网特性的影响,可以通过在芯片上放置去电容来增强加密芯片的对抗能力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Power supply noise aware evaluation framework for side channel attacks and countermeasures
Side Channel Attack (SCA) aims to extract the secret information from cryptography chips by analyzing the leakage of physical parameters. Power analysis based SCA is a popular approach to obtain secret keys by monitoring the power consumption of cryptography chips. However, most SCA evaluation methods are performed on FPGA platforms while many parasitic physical effects cannot be revealed before the cryptography chips are taped out. Roughly ignoring these effects will significantly increase the attack difficulties due to the corresponding measurement noise. Power supply noise has been observed to be critical for power analysis based SCA. This paper demonstrates a power supply noise aware evaluation framework for practical side channel attack from cryptography system design to physical design. On-chip power delivery network is implemented among physical design stage. Consequently the supply noise of power network can be explored according to the post-layout implementation. Additionally, the countermeasures of cryptography chips could be enhanced by on-chip decapacitors placement due to its influences on the characteristics of power delivery network.
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