Side-channel Programming for Software Integrity Checking

Hong Liu, Eugene Y. Vasserman
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引用次数: 2

Abstract

Verifying software integrity for embedded systems, especially legacy and deployed systems, is very challenging. Ordinary integrity protection and verification methods rely on sophisticated processors or security hardware, and cannot be applied to many embedded systems due to cost, energy consumption, and inability of update. Furthermore, embedded systems are often small computers on a single chip, making it more difficult to verify integrity without invasive access to the hardware. In this work, we propose “side-channel programming”, a novel method to assist with non-intrusive software integrity checking by transforming code in a functionality-preserving manner while making it possible to verify the internal state of a running device via side-channels. To do so, we first need to accurately profile the side-channel emanations of an embedded device. Using new black-box side-channel profiling techniques, we show that it is possible to build accurate side-channel models of a PIC microcontroller with no prior knowledge of the detailed microcontroller architecture. It even allows us to uncover undocumented behavior of the microcontroller. Then we show how to “side-channel program” the target device in a way that we can verify its internal state from simply measuring the passive side-channel emanations. Received on 23 March 2021; accepted on 27 May 2021; published on 02 June 2021
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软件完整性检查的边信道编程
验证嵌入式系统,特别是遗留系统和已部署系统的软件完整性是非常具有挑战性的。普通的完整性保护和验证方法依赖于复杂的处理器或安全硬件,由于成本、能耗和无法更新等原因,无法应用于许多嵌入式系统。此外,嵌入式系统通常是单芯片上的小型计算机,这使得在不侵入式访问硬件的情况下验证完整性变得更加困难。在这项工作中,我们提出了“侧通道编程”,这是一种新颖的方法,通过以保留功能的方式转换代码来协助非侵入式软件完整性检查,同时使通过侧通道验证运行设备的内部状态成为可能。要做到这一点,我们首先需要准确地分析嵌入式设备的侧信道发射。使用新的黑盒侧通道分析技术,我们表明可以在没有详细微控制器架构的先验知识的情况下构建PIC微控制器的精确侧通道模型。它甚至允许我们发现微控制器未记录的行为。然后,我们展示了如何“侧通道程序”的目标器件,我们可以验证其内部状态,从简单地测量被动侧通道发射的方式。2021年3月23日收到;2021年5月27日接受;出版于2021年6月2日
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