Delica: Decentralized Lightweight Collective Attestation for Disruptive IoT Networks

Ziyu Wang, Cong Sun, Qingsong Yao, Duo Ding, Jianfeng Ma
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Abstract

The recent advance of the Internet of Things and autonomous systems brings massive security threats to the network of low-end embedded devices. Remote attestation is a hardware-assisted technique to verify the integrity and trustworthiness of software on remote devices. The recently proposed collective remote attestations have focused on attesting to the highly dynamic and disruptive device networks. However, they are generally inefficient due to the homogeneous node setting for the robustness of attestation reports aggregation. In this work, we propose Delica, an efficient and robust collective attestation framework for dynamic and disruptive networks. We differentiate the role of provers and aggregators to limit the redundant communications and attestation evidence aggregations for efficiency. Delica is capable of mitigating DoS attacks and detecting physical and black-hole attacks. The experimental results and analysis show that Delica can greatly reduce the per-node computational cost and reduce the network attestation cost by over 75% compared with the state-of-the-art approaches on disruptive networks.
Delica:颠覆性物联网网络的去中心化轻量级集体认证
近年来,物联网和自主系统的发展给低端嵌入式设备网络带来了巨大的安全威胁。远程认证是一种硬件辅助技术,用于验证远程设备上软件的完整性和可信度。最近提出的集体远程认证侧重于对高度动态和破坏性的设备网络进行认证。然而,由于为保证认证报告聚合的健壮性而采用同构节点设置,它们通常效率低下。在这项工作中,我们提出了Delica,这是一个针对动态和破坏性网络的高效且强大的集体认证框架。我们区分证明者和聚合者的角色,以限制冗余通信和证明证据聚合,提高效率。Delica能够减轻DoS攻击,并检测物理和黑洞攻击。实验结果和分析表明,与目前最先进的破坏性网络方法相比,Delica可以大大降低每个节点的计算成本,将网络认证成本降低75%以上。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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