Implementation of a Wireless Mesh Network Testbed for Traffic Control

Kun-Chan Lan, Zhe Wang, Rodney Berriman, T. Moors, Mahbub Hassan, Lavy Libman, M. Ott, B. Landfeldt, Z. Zaidi, A. Seneviratne
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引用次数: 17

Abstract

Wireless mesh networks (WMN) have attracted considerable interest in years as a convenient, flexible and low-cost alternative to wired communication infrastructures in many contexts. However, the great majority of research on metropolitan-scale WMN has been centered around maximization of available bandwidth, suitable for non-real-time applications such as Internet access for the general public. On the other hand, the suitability of WMN for mission-critical infrastructure applications remains by and large unknown, as protocols typically employed in WMN are, for the most part, not designed for real-time communications. In this paper, we describe the smart transport and roads communications (STaRComm) project at National ICT Australia (NICTA), which sets a goal of designing a wireless mesh network architecture to solve the communication needs of the traffic control system in Sydney, Australia. This system, known as SCATS (Sydney coordinated adaptive traffic system) and used in over 100 cities around the world, connects a hierarchy of several thousand devices - from individual traffic light controllers to regional computers and the central traffic management centre (TMC) - and places stringent requirements on the reliability and latency of the data exchanges. We discuss our experience in the deployment of an initial testbed consisting of 7 mesh nodes placed at intersections with traffic lights, and share the results and insights learned from our measurements and initial trials in the process.
无线网状网络流量控制试验台的实现
近年来,无线网状网络(WMN)作为一种方便、灵活、低成本的有线通信基础设施替代品,在许多情况下引起了人们的极大兴趣。然而,绝大多数城域规模WMN的研究都是围绕着可用带宽的最大化展开的,适合于非实时应用,如普通大众的互联网接入。另一方面,WMN对关键任务基础设施应用的适用性基本上仍然未知,因为WMN中通常采用的协议在很大程度上不是为实时通信而设计的。在本文中,我们描述了澳大利亚国家信息通信技术(NICTA)的智能交通和道路通信(STaRComm)项目,该项目设定了设计无线网状网络架构的目标,以解决澳大利亚悉尼交通控制系统的通信需求。这个系统被称为SCATS(悉尼协调自适应交通系统),在全球100多个城市使用,连接了数千个设备的层次结构-从单个交通灯控制器到区域计算机和中央交通管理中心(TMC) -并对数据交换的可靠性和延迟提出了严格的要求。我们讨论了在有交通灯的十字路口部署由7个网格节点组成的初始测试平台的经验,并分享了在此过程中从我们的测量和初始试验中获得的结果和见解。
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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