动态故障注入对策提高侧通道电阻

Jan Richter-Brockmann, T. Güneysu
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引用次数: 2

摘要

侧信道分析和故障注入攻击被认为是对加密硬件实现的严重威胁,目前对两者的联合保护是一个开放的研究方向。一种很有前途但实现开销很大的对策似乎是一阶安全阈值实现和线性纠错码的混合。本文首次采用非系统码的固有结构作为故障对策,动态改变应用的发生器矩阵,实现高阶侧信道和故障保护设计。作为一个案例研究,我们将我们的方案应用于PRESENT分组密码,该分组密码在测量1.5亿个功率走线后没有显示任何高阶侧信道泄漏。
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Improved Side-Channel Resistance by Dynamic Fault-Injection Countermeasures
Side-channel analysis and fault-injection attacks are known as serious threats to cryptographic hardware implementations and the combined protection against both is currently an open line of research. A promising countermeasure with considerable implementation overhead appears to be a mix of first-order secure Threshold Implementations and linear Error-Correcting Codes.In this paper we employ for the first time the inherent structure of non-systematic codes as fault countermeasure which dynamically mutates the applied generator matrices to achieve a higher-order side-channel and fault-protected design. As a case study, we apply our scheme to the PRESENT block cipher that do not show any higher-order side-channel leakage after measuring 150 million power traces.
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