CacheGuard:针对持续攻击的安全增强的目录架构

Kai Wang, Fengkai Yuan, Rui Hou, Jingqiang Lin, Z. Ji, Dan Meng
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引用次数: 3

摘要

现代处理器内核共享最后一级缓存和目录,以提高资源利用率。不幸的是,这种共享使得缓存容易受到跨核缓存侧通道攻击。近年来的研究表明,跨核缓存侧信道攻击导致的信息泄露是云服务器、移动电话、嵌入式设备等不同计算领域的严重威胁。然而,以前的解决方案存在性能下降、缺乏黄金标准、需要软件支持或容易被绕过的局限性。在本文中,我们观察到大多数跨核缓存侧通道攻击会导致敏感数据在连续攻击场景下出现乒乓模式,攻击者需要在短时间内发动多次攻击。本文提出了CacheGuard来防御连续攻击。CacheGuard扩展了用于捕获乒乓模式的目录体系结构。一旦捕获了缓存线的乒乓模式,cache - guard可以使用两个面向模式的反作用力(Preload和Lock)来保护该线路。实验评估表明,CacheGuard可以有效地阻止连续攻击,并且性能降低和硬件开销很小。
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CacheGuard: a security-enhanced directory architecture against continuous attacks
Modern processor cores share the last-level cache and directory to improve resource utilization. Unfortunately, such sharing makes the cache vulnerable to cross-core cache side channel attacks. Recent studies show that information leakage through cross-core cache side channel attacks is a serious threat in different computing domains ranging from cloud servers and mobile phones to embedded devices. However, previous solutions have limitations of losing performance, lacking golden standards, requiring software support, or being easily bypassed. In this paper, we observe that most cross-core cache side channel attacks cause sensitive data to appear in a ping-pong pattern in continuous attack scenarios, where attackers need to launch numerous attacks in a short period of time. This paper proposes CacheGuard to defend against the continuous attacks. CacheGuard extends the directory architecture for capturing the ping-pong patterns. Once the ping-pong pattern of a cache line is captured, Cache-Guard can secure the line with two pattern-oriented counteractions, Preload and Lock. The experimental evaluation demonstrates that CacheGuard can block the continuous attacks, and that it induces negligible performance degradation and hardware overhead.
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