LoRa for the Last Mile Connectivity in IoT

Sankar Dasiga, A. Bhatia, Atul Bhirangi, A. Siddiqua
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引用次数: 4

Abstract

Cost-effective, low-power and wireless connectivity are among the key considerations for interconnecting the end-nodes or end-devices in the Internet of Things (IoT) applications. While wireless technologies such as WiFi, Bluetooth, Zigbee have been popular choices for last-mile connectivity, they however significantly restrict the distance between the communicating entities. While the use of additional network gear like repeaters or higher signal transmission power would increase the range of these wireless communication interfaces, the consequent increase in the cost has been a critical reason for not readily employing them in WAN based IoT applications such as Smart Cities. The emergence of the LoRa (Long Range) standard and the Low Power Wide Area Network (LPWAN) technology, in recent times, have however widened the scope and also broadened the deployment scenarios of the IoT end-nodes including the viability of the battery-powered and non-stationary ones. Yet another significance of these new long-distance-low-power interconnect standards is the empowerment for broader and independent Machine to Infrastructure (M2I) and Machine to Machine (M2M) communication for the end-nodes. This paper discusses details of the work that was carried out to explore the suitability of LoRa and LoRaWAN to address the short as well as the medium-range connectivity requirements of the IoT applications while also ensuring the flexibility and low-cost benefits with the help of results obtained from the representative experimental setups. The overall study and assessment were performed in steps, each with specific objectives. The first step was aimed at evaluating the performance of LoRa for communication between stationary as well as moving nodes. The next step was directed towards the validation of node-to-gateway and node-to-node communication, and also, with simultaneous use of different channels within LoRaWANs that were configured in star and mesh topologies. The subsequent step was devoted to assessing the viability of LoRa in broader IoT applications such as Smart Cities and Smart Irrigation, with the help of an illustrative setup comprising of nodes with sensors and actuators and, a gateway which was connected to an open-source cloud infrastructure to epitomize aspects of storage and analysis of data of a comprehensive IoT deployment.
LoRa用于物联网中的最后一英里连接
经济高效、低功耗和无线连接是物联网(IoT)应用中连接终端节点或终端设备的关键考虑因素之一。虽然WiFi、蓝牙、Zigbee等无线技术是最后一英里连接的流行选择,但它们极大地限制了通信实体之间的距离。虽然使用额外的网络设备(如中继器或更高的信号传输功率)会增加这些无线通信接口的范围,但随之而来的成本增加一直是不容易在基于广域网的物联网应用(如智慧城市)中使用它们的关键原因。然而,近年来,LoRa(远程)标准和低功耗广域网(LPWAN)技术的出现拓宽了范围,也拓宽了物联网终端节点的部署场景,包括电池供电和非固定节点的可行性。然而,这些新的长距离低功耗互连标准的另一个重要意义是为终端节点提供更广泛和独立的机器对基础设施(M2I)和机器对机器(M2M)通信。本文讨论了为探索LoRa和LoRaWAN的适用性而开展的工作的细节,以解决物联网应用的短距离和中距离连接需求,同时确保灵活性和低成本效益,并借助代表性实验装置获得的结果。总体研究和评估是分步骤进行的,每一步都有具体的目标。第一步旨在评估LoRa在静止和移动节点之间通信的性能。下一步是验证节点到网关和节点到节点通信,以及同时使用在星形和网状拓扑中配置的LoRaWANs内的不同通道。随后的步骤致力于评估LoRa在更广泛的物联网应用(如智能城市和智能灌溉)中的可行性,借助说说性设置,包括带有传感器和执行器的节点,以及连接到开源云基础设施的网关,以集中体现全面物联网部署的数据存储和分析方面。
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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