针对定时通道攻击的安全动态内存调度

Yao Wang, Benjamin Wu, G. Suh
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引用次数: 11

摘要

本文提出了一种安全存储器控制器SecMC,它提供了有效的存储器调度,并提供了强大的定量安全保证,可以抵御定时信道攻击。第一个变体名为SecMC-NI,它消除了时序通道,同时通过交叉访问不同银行或等级的内存请求来允许严格的内存调度。实验结果表明,SecMC-NI显著(平均45%)提高了最著名的不依赖于限制内存位置的方案的性能。为了进一步提高性能,本文提出了SecMC-Bound算法,该算法通过对信息泄漏进行定量的信息论约束,实现了安全与性能之间的折衷。实验结果表明,允许少量的信息泄漏可以显著提高性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Secure Dynamic Memory Scheduling Against Timing Channel Attacks
This paper presents SecMC, a secure memory controller that provides efficient memory scheduling with a strong quantitative security guarantee against timing channel attacks. The first variant, named SecMC-NI, eliminates timing channels while allowing a tight memory schedule by interleaving memory requests that access different banks or ranks. Experimental results show that SecMC-NI significantly (45% on average) improves the performance of the best known scheme that does not rely on restricting memory placements. To further improve the performance, the paper proposes SecMC-Bound, which enables trading-off security for performance with a quantitative information theoretic bound on information leakage. The experimental results show that allowing small information leakage can yield significant performance improvements.
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