Validation of RF communication systems for Industry 4.0 through channel modeling and emulation

V. Díez, A. Arriola, I. Val, M. Vélez
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引用次数: 7

Abstract

Industry 4.0 will be distinguished by the capacity of communication via IoT (Internet of Things) between machines to work in a decentralized way and to reach common decisions, resulting in what is called “smart factories”. The use of wireless communication systems will be essential to achieve it, but industrial environments present several challenges, such as: real time control, operation in environments with electromagnetic noise, and monitoring and synchronization of wireless nodes under the massive presence of metal elements in movement, which is a source of undesired wireless channel propagation effects like multipath, scattering, and shadowing. All these channel effects can be characterized carrying out measurement campaigns with channel sounders and obtaining channel models. Due to all of the above, an in-lab validation methodology of radio frequency (RF) communication systems is necessary to ensure a high availability and performance of the communication links. This can be achieved by the use of RF channel emulators, which allow different industrial channel models to be emulated in the laboratory, and therefore testing RF communication systems in realistic situations. Finally, by different metrics of the physical and media access control (MAC) layers, the behavior of RF communication systems can be assessed and even improvements can be suggested. In this paper, a validation methodology is presented which considers the previous aspects and provides essential know-how for the suitability of wireless communication systems for the future Industry 4.0 scenario.
通过信道建模和仿真验证工业4.0射频通信系统
工业4.0的特点将是机器之间通过物联网(IoT)以分散的方式工作并达成共同决策的通信能力,从而产生所谓的“智能工厂”。无线通信系统的使用对实现这一目标至关重要,但工业环境提出了一些挑战,例如:实时控制,电磁噪声环境中的操作,以及在运动中大量存在金属元素的情况下监测和同步无线节点,这是不希望的无线信道传播效应的来源,如多径,散射和阴影。所有这些通道效应都可以用通道测深仪进行测量活动并获得通道模型来表征。由于上述所有原因,射频(RF)通信系统的实验室验证方法对于确保通信链路的高可用性和性能是必要的。这可以通过使用射频信道仿真器来实现,它允许在实验室中模拟不同的工业信道模型,从而在现实情况下测试射频通信系统。最后,通过物理和媒体访问控制(MAC)层的不同度量,可以评估射频通信系统的行为,甚至可以提出改进建议。在本文中,提出了一种验证方法,该方法考虑了前面的方面,并为无线通信系统在未来工业4.0场景中的适用性提供了必要的技术诀窍。
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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