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基于物联网的地面物流改进架构。

Architecture for improving terrestrial logistics based on the Web of Things.

机构信息

Clinical Technology Lab, Computer Science Faculty, University of Murcia, Murcia, 30003, Spain.

出版信息

Sensors (Basel). 2012;12(5):6538-75. doi: 10.3390/s120506538. Epub 2012 May 18.

DOI:10.3390/s120506538
PMID:22778657
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC3386756/
Abstract

Technological advances for improving supply chain efficiency present three key challenges for managing goods: tracking, tracing and monitoring (TTM), in order to satisfy the requirements for products such as perishable goods where the European Legislations requires them to ship within a prescribed temperature range to ensure freshness and suitability for consumption. The proposed system integrates RFID for tracking and tracing through a distributed architecture developed for heavy goods vehicles, and the sensors embedded in the SunSPOT platform for monitoring the goods transported based on the concept of the Internet of Things. This paper presents how the Internet of Things is integrated for improving terrestrial logistics offering a comprehensive and flexible architecture, with high scalability, according to the specific needs for reaching an item-level continuous monitoring solution. The major contribution from this work is the optimization of the Embedded Web Services based on RESTful (Web of Things) for the access to TTM services at any time during the transportation of goods. Specifically, it has been extended the monitoring patterns such as observe and blockwise transfer for the requirements from the continuous conditional monitoring, and for the transfer of full inventories and partial ones based on conditional queries. In definitive, this work presents an evolution of the previous TTM solutions, which were limited to trailer identification and environment monitoring, to a solution which is able to provide an exhaustive item-level monitoring, required for several use cases. This exhaustive monitoring has required new communication capabilities through the Web of Things, which has been optimized with the use and improvement of a set of communications patterns.

摘要

为提高供应链效率而进行的技术进步给货物管理带来了三个关键挑战

跟踪、追溯和监控(TTM),以满足对易腐货物等产品的要求,欧洲法规要求这些产品在规定的温度范围内运输,以确保新鲜度和适宜食用。所提出的系统通过为重型货车开发的分布式架构集成了用于跟踪和追溯的 RFID,以及基于物联网概念用于监控运输货物的 SunSPOT 平台中嵌入的传感器。本文介绍了如何通过提供全面灵活的架构,根据实现物品级连续监控解决方案的特定需求实现高可扩展性,将物联网集成到地面物流中以提高其效率。这项工作的主要贡献是基于嵌入式 Web 服务的优化,这些服务是基于 RESTful(物联网)的,以便在货物运输过程中的任何时间访问 TTM 服务。具体来说,它扩展了监测模式,例如观察和分块传输,以满足连续条件监测的要求,并根据条件查询传输完整库存和部分库存。总之,这项工作展示了 TTM 解决方案的演进,这些解决方案仅限于拖车识别和环境监控,现在已经能够提供所需的详尽的物品级监控,以满足几个用例的要求。这种详尽的监控需要通过物联网实现新的通信能力,这已经通过使用和改进一组通信模式进行了优化。

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