5G as Communication Platform for Solar Tower Plants

P. Schwarzbözl, Inga Miadowicz, Daniel Maldonado Quinto, Julian Golembiewski, Pascal Jörke, T. Faulwasser, Christian Wietfeld
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Abstract

Wiring of heliostat fields for solar tower plants is a cost factor that becomes more important as the overall cost target is decreasing. Wireless heliostats with radio communication and autarchic energy supply have therefore been proposed in the past. But none of the communication solutions investigated so far could realistically scale to commercial size plants with tens of thousands of heliostats. Moreover, the digitalization of CSP plants with numerous mobile and stationary sensor systems requires a suitable data communication, too. The new generation of mobile radio communication (5G) is capable of handling the heterogenous communication profile portfolio comprising large numbers of units with low data rates – like heliostats - and few units with very large data volume – like e.g. drone-based camera systems. The communication requirements of a typical solar tower installation are assessed in this work and a data traffic model is created for the most relevant communication channels. The various existing 5G implementations are assessed to find the most suitable solution. Different operator models for 5G are considered and their applicability in CSP target countries is discussed. A simulation test case is presented that models the radio communication traffic of a heliostat field control during a cloud passage. Finally, the experimental 5G campus network is introduced that is currently installed at the Solar Tower Jülich research plant and will be operated in the upcoming months to demonstrate the technical feasibility of 5G radio for communication in solar fields.
5G 作为太阳能塔发电厂的通信平台
太阳能塔式电站的定日镜布线是一个成本因素,随着总体成本目标的降低,这个因素变得越来越重要。因此,过去有人提出了带有无线电通信和自动能源供应功能的无线定日镜。但迄今为止所研究的通信解决方案中,还没有一个能切实可行地扩展到拥有数万个定日镜的商业规模电站。此外,带有大量移动和固定传感器系统的 CSP 发电站的数字化也需要合适的数据通信。新一代移动无线电通信(5G)能够处理由大量低数据速率设备(如定日镜)和少量大数据量设备(如无人机摄像系统)组成的异质通信配置组合。在这项工作中,对典型太阳能塔安装的通信要求进行了评估,并为最相关的通信信道创建了数据流量模型。对现有的各种 5G 实施方案进行评估,以找到最合适的解决方案。考虑了不同的 5G 运营商模式,并讨论了它们在 CSP 目标国家的适用性。介绍了一个仿真测试案例,该案例模拟了云穿越期间定日镜场控制的无线电通信流量。最后,介绍了目前安装在尤利希太阳能塔研究工厂的实验性 5G 校园网络,该网络将在未来几个月内运行,以证明 5G 无线电在太阳能场通信中的技术可行性。
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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