ATRIUM:运行时认证在内存攻击下具有弹性

Shaza Zeitouni, Ghada Dessouky, Orlando Arias, Dean Sullivan, Ahmad Ibrahim, Yier Jin, A. Sadeghi
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引用次数: 78

摘要

远程认证是一项重要的安全服务,它允许受信任的一方(验证者)验证在远程和可能受到损害的设备(证明者)上运行的软件的完整性。现有远程认证方案的安全性依赖于这样的假设:攻击仅针对软件,并且证明者的代码不能在运行时修改。然而,在实践中,这些方案可以在更强大、更现实的对手模型中绕过,该模型因此能够控制和修改代码内存以验证良性代码,但却执行恶意代码,从而使底层系统容易受到检查使用时间(TOCTOU)攻击。在这项工作中,我们首先通过利用对证明者内存的物理访问来演示TOCTOU攻击最近提出的认证方案。然后,我们介绍了ATRIUM的设计和概念验证实现,ATRIUM是一个运行时远程认证系统,可以安全地验证代码的二进制和内存攻击下的执行行为。ATRIUM提供了针对基于软件和硬件的TOCTOU攻击的弹性,同时产生最小的面积和性能开销。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
ATRIUM: Runtime attestation resilient under memory attacks
Remote attestation is an important security service that allows a trusted party (verifier) to verify the integrity of a software running on a remote and potentially compromised device (prover). The security of existing remote attestation schemes relies on the assumption that attacks are software-only and that the prover's code cannot be modified at runtime. However, in practice, these schemes can be bypassed in a stronger and more realistic adversary model that is hereby capable of controlling and modifying code memory to attest benign code but execute malicious code instead — leaving the underlying system vulnerable to Time of Check Time of Use (TOCTOU) attacks. In this work, we first demonstrate TOCTOU attacks on recently proposed attestation schemes by exploiting physical access to prover's memory. Then we present the design and proof-of-concept implementation of ATRIUM, a runtime remote attestation system that securely attests both the code's binary and its execution behavior under memory attacks. ATRIUM provides resilience against both software- and hardware-based TOCTOU attacks, while incurring minimal area and performance overhead.
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