跨越式协作:工业物联网应用的确定性和可预测性

Georgios Z. Papadopoulos, T. Matsui, P. Thubert, Géraldine Texier, T. Watteyne, N. Montavont
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引用次数: 24

摘要

最近的标准化活动为正在“走向工业化”的物联网(IoT)带来了高质量的服务(QoS)和可预测性。工业过程控制、智能电网或车辆自动化等关键应用需要具有准时数据交付和端到端可靠性接近100%等特性的确定性传输。传统的基于碰撞检测和重传的无线电技术引入了不可预测的延迟,并且不能在有限的时间内保证可靠的传输。本文提出利用空间分集和分组冗余来补偿无线媒体固有的损耗。我们引入了“跨越式协作”,这是一种利用通信监听的通信机制,并在两条路径上安排并行传输。路径之间的混杂侦听使节点可能无意中听到另一个节点的传输。我们使用Contiki OS进行仿真,评估了通信的延迟和抖动,结果表明,Leapfrog协作比IEEE802.15.4-TSCH的默认重传方法分别高出28%和54%,同时提供了较高的网络可靠性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Leapfrog collaboration: Toward determinism and predictability in industrial-IoT applications
Recent standardization activities bring high Quality of Service (QoS) and predictability to Internet of Things (IoT), which are “going industrial”. Critical applications such as industrial process control, smart grid or vehicle automation require deterministic transmissions with properties such as on-time data deliveries and end-to-end reliability close to 100%. Traditional radio technologies based on collision detection and retransmission introduce unpredictable delays, and can not ensure reliable delivery within a narrowly bounded time. This paper proposes to exploit spatial diversity and packet redundancy to compensate for the inherently lossy wireless medium. We introduce “Leapfrog Collaboration”, a communication mechanism which takes advantage of communication overhearing, and in which parallel transmissions over two paths are scheduled. Promiscuous listening between the paths enables nodes to possibly overhear transmissions on the other. We evaluate the delay and jitter of the communication by simulation using Contiki OS and show that Leapfrog Collaboration outperforms the default retransmission-based approach of IEEE802.15.4-TSCH by up to 28% and 54%, respectively, while providing high network reliability.
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