Keynote speech 3: Channel evaluation for high speed data communication

D. Chang, Jen-Tsai Kuo
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Abstract

One of the most significant things to happen in recent years is the establishment of a connected world known as “The Internet of Things” (IoT). In the IoT, the data throughput with increasing number of interconnected devices and high digital data communication for data center or personnel device is the most significant technique challenges. If the data throughput (bits/s) is not large enough, it will cause limitation of data upload and download for data communication of IoT. From the Shannon theory, the data throughput as shown in the following equation is proportional to the parameters of channel bandwidth B, number of channels M, and received signal to noise ratio S/N. How to improve the parameters of B, M, and S/N are important for the study of data throughput. In general, the various channels include wire channel and wireless channel as shown in figure 1. The common wireless channels are the antenna channel and wave propagation channel. The wire channel such as coaxial cable, twist pair cable, twinax cable, and line trace on print circuit board or semiconductor, etc.,. In order to increase the channel capacity, the high speed cable may include several channels with wider channel bandwidth and less crosstalk among channels. The common high speed data cables for data center, such as zQSFP or zQSFP-DD, include 4 or 8 channels with total data throughput 100 Gbit/s or over than 200 Gbit/s. The data throughput depends on the quality of channels. In this talk we will focus on the wire channels. There are many ways to evaluate the performance of channels. The mixed mode S-parameters for channels will be detail discussed for channel evaluation. Except for the mixed mode S-parameters of channels, the BER (bit error rate), eye pattern, and COM (channel operating margin) will also discussed during the talk.
主题演讲3:高速数据通信的信道评估
近年来发生的最重要的事情之一是建立一个被称为“物联网”(IoT)的连接世界。在物联网中,随着互联设备数量的增加和数据中心或人员设备的高数字数据通信,数据吞吐量是最重要的技术挑战。如果数据吞吐量(bits/s)不够大,将会限制物联网数据通信的数据上传和下载。根据香农理论,下式所示的数据吞吐量与信道带宽B、信道数M、接收信噪比S/N等参数成正比。如何提高B、M、S/N等参数对数据吞吐量的研究具有重要意义。通常,各种信道包括有线信道和无线信道,如图1所示。常用的无线信道有天线信道和波传播信道。印刷电路板或半导体上的同轴电缆、双绞线电缆、双轴电缆、线迹等导线通道。为了增加信道容量,高速电缆可以包含多个信道,信道带宽更宽,信道间串扰更少。数据中心常用的高速数据线缆,如zQSFP、zQSFP- dd等,有4路、8路,总数据吞吐量可达100gbit /s或200gbit /s以上。数据吞吐量取决于信道的质量。在这次演讲中,我们将重点关注有线通道。评估信道性能的方法有很多。信道的混合模式s参数将在信道评估中详细讨论。除了信道的混合模式s参数外,BER(误码率)、眼图和COM(信道运行余量)也将在演讲中讨论。
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