Network Planning and Coverage Optimization for Mobile Campus Networks

A. Krause, Waqar Anwar, Ana Belen Martinez, Dirk Stachorra, G. Fettweis, Norman Franchi
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引用次数: 1

Abstract

The campus networks specified in 5G offer use-case tailored wireless communications that fulfills the demanding requirements of Industry 4.0 applications. Also agriculture and construction sites are fields of application that can benefit from the deployment of such networks. However, permanently installed campus networks do not match their requirements, as the network is needed only for certain time intervals and furthermore needs to be easily adaptable due to the time-varying nature of construction sites. Mobile campus networks (MCNs) solve this problem, as they can be deployed by a trailer in a short time and can be adjusted flexibly. Such MCNs require a very short and as much as possible automated planning and deployment procedure. Thus, conventional radio network planning (RNP) as it is applied for macro cells is too costly and time consuming, as it requires lots of manual effort and is not easily scalable. This paper presents an automated RNP framework for MCN based on MATLAB and WinProp, which optimizes the downlink coverage with one base station for several receiver heights that are relevant in an agricultural scenario. The proposed procedure also includes field measurements, which are intended to be executed by a drone. This allows a high flexibility in the selection of the measurement positions. An algorithm is developed that automates the environment-specific selection of measurement points and thus allows an efficient tuning of the propagation model. Subsequently, based on the measurements the propagation model is tuned and then used to recheck the results of the initial RNP. By applying another propagation model, real-world data are mimicked and the proposed algorithm is evaluated.
移动校园网的网络规划与覆盖优化
5G指定的校园网提供定制的无线通信用例,满足工业4.0应用的苛刻要求。此外,农业和建筑工地也是可以从部署这种网络中受益的应用领域。然而,永久安装的校园网不符合他们的要求,因为网络只需要在一定的时间间隔内使用,而且由于建筑工地的时变性质,需要易于适应。移动校园网mcn (Mobile campus network)解决了这一问题,它可以在短时间内通过拖车部署,并且可以灵活调整。这样的mcn需要一个非常短且尽可能自动化的规划和部署过程。因此,传统的无线网络规划(RNP)应用于宏蜂窝时,由于需要大量的人工工作并且不易扩展,因此成本过高且耗时。本文提出了一种基于MATLAB和WinProp的MCN自动RNP框架,该框架优化了在农业场景中与多个接收器高度相关的一个基站的下行链路覆盖。拟议的程序还包括由无人机执行的现场测量。这使得在选择测量位置时具有很高的灵活性。开发了一种算法,可以自动选择特定于环境的测量点,从而允许有效地调整传播模型。随后,根据测量调整传播模型,然后用于重新检查初始RNP的结果。通过应用另一种传播模型,模拟了实际数据,并对所提出的算法进行了评估。
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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