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基于从人口密集的智慧城市获取的实验数据对4G LTE网络关键性能指标的分析。

Analysis of key performance indicators of a 4G LTE network based on experimental data obtained from a densely populated smart city.

作者信息

Imoize Agbotiname Lucky, Orolu Kehinde, Atayero Aderemi Aaron-Anthony

机构信息

Department of Electrical and Electronics Engineering, Faculty of Engineering, University of Lagos, Lagos State, Nigeria.

Department of Systems Engineering, Faculty of Engineering, University of Lagos, Lagos State, Nigeria.

出版信息

Data Brief. 2020 Feb 17;29:105304. doi: 10.1016/j.dib.2020.105304. eCollection 2020 Apr.

DOI:10.1016/j.dib.2020.105304
PMID:32140519
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC7044520/
Abstract

Key performance indicator (KPI) data provide candidate information required for effective network planning, performance analysis and optimization. However, inadequate KPI data could limit efficient network planning leading to escalating operational cost, and this could adversely affect the subscribers of the network. To this end, this article presents radio frequency (RF) measurements and evaluation of KPIs taken at 1876.6MHz with a bandwidth of 10MHz, for an operational 4G LTE network in Nigeria. The measurements campaign specifically examine the behaviour of the RSRP, RSRQ, RSSI, SINR, PCC PHY DL Throughput, and the PDCP DL Throughput. Huawei Technologies Modem E392 was used for the propagation measurements, and RF measurements cover three evolved node base stations (eNodeBs) with average heights of 25 m. The geographical coordinates of the sites are as follows: Site 1 (Latitude 6.43543333; Longitude 3.44539667), Site 2 (Latitude 6.55639500; Longitude 3.36693333), and Site 3 (Latitude 6.51879500; Longitude 3.39911000). The E392 4G (LTE) Modem is capable of propagation measurements at the various LTE frequency bands, enables LTE download Speed of 100 Mbit/s, supports LTE upload Speed of 50 Mbit/s, utilizes LTE 2x2 MIMO (Multiple Input Multiple Output), and supports 64QAM (Quadrature Amplitude Modulation). The Drive Test (DT) Software version-Genex prove V16, and Genex Assistance V16 were deployed, and the test car carried a test terminal station, a GPS, a Windows supported Computer, and the accompanying drive test system. The test vehicle was driven such that it considered the actual road traffic conditions at a relatively medium speed of up to 30km/h with uniformity thereby reducing possible Doppler effects. Terminal connection was established, and data download services was started (using file transfer protocol - ftp, a drive test software, which has the function to download a large file of around 20GB). Thereafter, the download simultaneous file downloading limit was set to 5 files (such that 5 files can be downloaded simultaneously with quality download speed). When connection drops, simultaneous connection was re-established using the ftp software, and drive test was carried out within a planned cluster on a bright and sunny day. Statistical descriptions and probability distribution functions of the KPI data is reported and interdependence amongst the KPIs are presented to ease understanding of the interrelationships among the tested KPIs. The data reported would find useful applications in RF planning, radio channel measurements and modelling, feasibility studies and formulation of appropriate regulatory policies for wireless communication systems. Network operators could leverage on the data for appropriate KPI analyses, radio resources management, and research and development.

摘要

关键绩效指标(KPI)数据提供了有效网络规划、性能分析和优化所需的候选信息。然而,KPI数据不足可能会限制高效的网络规划,导致运营成本不断上升,进而对网络用户产生不利影响。为此,本文介绍了在尼日利亚一个运行中的4G LTE网络中,于1876.6MHz频率、10MHz带宽下进行的射频(RF)测量以及KPI评估。测量活动专门研究了参考信号接收功率(RSRP)、参考信号接收质量(RSRQ)、接收信号强度指示(RSSI)、信号与干扰加噪声比(SINR)、主公共控制物理信道下行链路吞吐量以及分组数据汇聚协议(PDCP)下行链路吞吐量的表现。华为技术有限公司的E392调制解调器用于传播测量,RF测量覆盖了三个平均高度为25米的演进型节点基站(eNodeB)。这些站点的地理坐标如下:站点1(纬度6.43543333;经度3.44539667),站点2(纬度6.55639500;经度3.36693333),以及站点3(纬度6.51879500;经度3.39911000)。E392 4G(LTE)调制解调器能够在各个LTE频段进行传播测量,实现100 Mbit/s的LTE下载速度,支持50 Mbit/s的LTE上传速度,采用LTE 2x2多输入多输出(MIMO),并支持64正交幅度调制(QAM)。使用了路测(DT)软件版本 - Genex Prove V16和Genex Assistance V16,测试车辆搭载了测试终端站、全球定位系统(GPS)、支持Windows的计算机以及配套的路测系统。测试车辆的行驶方式考虑了实际道路交通状况,以最高30km/h的相对中等速度匀速行驶,从而减少可能的多普勒效应。建立了终端连接,并启动了数据下载服务(使用文件传输协议 - ftp,这是一款路测软件,具有下载大约20GB大文件的功能)。此后,将下载同时文件下载限制设置为5个文件(以便能够以高质量下载速度同时下载五个文件)。当连接中断时,使用ftp软件重新建立同时连接,并在阳光明媚的白天在规划的集群内进行路测。报告了KPI数据的统计描述和概率分布函数,并展示了KPI之间的相互依存关系,以方便理解测试的KPI之间的相互关系。所报告的数据将在RF规划、无线电信道测量与建模、可行性研究以及制定无线通信系统的适当监管政策中找到有用的应用。网络运营商可以利用这些数据进行适当的KPI分析、无线电资源管理以及研发工作。

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