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引用次数: 2

摘要

无线通信是物联网(IOT)和工业4.0时代的关键话题之一。每个传感器或动作器都应该是智能的,并且能够通过网络进行通信,在许多情况下,有线网络不是一个选择。对于工业和测量和控制网络的使用,设备也必须通过无线链路进行同步。有许多不同的无线技术,其中大多数是基于无线电的,并且不确定(反射,重传等),这使得它们在实现精确时间协议(PTP)时相当具有挑战性。除了使用无线电通信,还可以使用自由空间光通信(FSO),例如红外通信。串行红外(SIR)是一种非常简单,短距离,有限带宽,低功耗,廉价和确定的方法,通过通用异步接收发送器(UART)协议在多个红外节点之间传输数据。本文对PTP与SIR的结合进行了研究。对PTP帧的时间戳和封装进行了详细的分析。给出了基于FPGA收发器的实验实现,并在不同节点间距下进行了同步精度测量。实验结果表明,通过无线链路可以实现亚微秒同步,并且如果涉及到低带宽,短距离无线通信,自由空间光通信可以与无线电通信相比是一种同样有用的方法。
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Wireless IEEE1588 over an infrared interface
Wireless communication is one of the key topics in the time of internet of things (IOT) and industry 4.0. Every sensor or actor should be smart and able to communicate over a network and in many cases a wired network is not an option. For the use in industrial and measurement and control networks, the devices have to be synchronized via the wireless link as well. There are many different wireless technologies, most of them are radio based and not deterministic (reflections, retransmission, etc.) which makes them quite challenging for implementing the Precision Time Protocol (PTP). Instead of using radio based communication also free-space optical (FSO) communication e.g. infrared can be used. Serial infrared (SIR) is a very simple, short-range, limited-bandwidth, low-power, cheap and deterministic method to transfer data via a Universal Asynchronous Receiver Transmitter (UART) like protocol between multiple infrared nodes. The combination of PTP with SIR has been studied in this paper. Especially the timestamping and encapsulation of PTP frames has been analyzed in detail. An experimental implementation based on an FPGA transceiver is outlined and synchronization accuracy measurements done with different spacing between two nodes. Experimental results are presented that show that sub-microsecond synchronization via a wireless link can be achieved and that free-space optical communication can be an equally useful approach compared to radio communication if it comes to low-bandwidth, short-range wireless communication.
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