物联网启动完整性测量和报告

Tom Broström, John Zhu, R. Robucci, M. Younis
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引用次数: 6

摘要

当前时代的特点是几乎所有领域都大量依赖计算平台,例如制造业、国防、医疗保健和政府。然而,随着计算机提供的生产力、灵活性和效率的提高,网络攻击的脆弱性也随之而来,黑客可以对软件甚至固件进行微妙的修改。可信平台模块(Trusted Platform Module, TPM)的集成选择通过帮助检测未经授权的修改来解决此问题,以便根据需要对设备进行修复。尽管如此,由于电源、空间和成本的限制,对于资源受限的设备来说,使用TPM是不切实际的。随着最近小型化设备的激增以及向物联网(IoT)的推进,需要一种轻量级且实用的TPM替代品。本文提出了一种具有成本效益的解决方案,该解决方案包含适量的集成信任根逻辑,并支持对设备启动状态的完整性进行证明。我们的解决方案利用了当今许多基于微处理器和微控制器的物联网设备上的加密加速模块,并且引入了很少的额外开销。通过在带有FPGA和硬微控制器的SoC上实现,验证了基本概念。我们报告验证结果并强调所涉及的权衡。
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IoT boot integrity measuring and reporting
The current era can be characterized by the massive reliance on computing platforms in almost all domains, such as manufacturing, defense, healthcare, government. However, with the increased productivity, flexibility, and effectiveness that computers provide, comes the vulnerability to cyber-attacks where software, or even firmware, gets subtly modified by a hacker. The integration of a Trusted Platform Module (TPM) opts to tackle this issue by aiding in the detection of unauthorized modifications so that devices get remediation as needed. Nonetheless, the use of a TPM is impractical for resource-constrained devices due to power, space and cost limitations. With the recent proliferation of miniaturized devices along with the push towards the Internet-of Things (IoT) there is a need for a lightweight and practical alternative to the TPM. This paper proposes a cost-effective solution that incorporates modest amounts of integrated roots-of-trust logic and supports attestation of the integrity of the device's boot-up state. Our solution leverages crypto-acceleration modules found on many microprocessor and microcontroller based IoT devices nowadays, and introduces little additional overhead. The basic concepts have been validated through implementation on an SoC with an FPGA and a hard microcontroller. We report the validation results and highlight the involved tradeoffs.
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