catet:物联网资源感知、基于能力的访问控制

F. Bakir, C. Krintz, R. Wolski
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引用次数: 4

摘要

我们提出了capet,这是一种授权机制,它扩展了基于功能的安全性,以支持多规模(传感器、边缘、云)物联网部署的细粒度访问控制。为了实现这一点,CAPLets使用强大的加密结构来提供完整性,同时为资源受限的系统保持计算效率。此外,catet通过动态的、用户定义的约束来增强功能,以描述任意的访问控制策略。我们引入了一个特定于应用程序的图灵完整虚拟机CapVM,以及eBPF和Wasm来描述约束。我们展示了catet能够细粒度地表达权限和需求,促进了重要访问控制策略的构建。我们通过经验评估了使用资源受限设备和端到端物联网部署的capet抽象的效率和灵活性,并将其与目前广泛使用的相关机制进行了比较。我们的实证结果表明,CAPLets比当前的物联网授权系统更快,更节能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
CAPLets: Resource Aware, Capability-Based Access Control for IoT
We present CAPLets, an authorization mechanism that extends capability based security to support fine grained access control for multi-scale (sensors, edge, cloud) IoT deployments. To enable this, CAPLets uses a strong cryptographic construction to provide integrity while preserving computational efficiency for resource constrained systems. Moreover, CAPLets augments capabilities with dynamic, user defined constraints to describe arbitrary access control policies. We introduce an application specific, turing complete virtual machine, CapVM, alongside with eBPF and Wasm, to describe constraints. We show that CAPLets is able to express permissions and requirements at a fine grain, facilitating construction of non-trivial access control policies. We empirically evaluate the efficiency and flexibility of CAPLets abstractions using resource constrained devices and end-to-end IoT deployments, and compare it against related mechanisms in wide use today. Our empirical results show that CAPLets is an order of magnitude faster and more energy efficient than current IoT authorization systems.
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