An IoT based Solar Park Health Monitoring System for PID and Hotspots Effects

G. Filios, Ioannis Katsidimas, Emmanouil Kerimakis, S. Nikoletseas, Alexandros Souroulagkas, P. Spirakis
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引用次数: 3

Abstract

With solar parks being established as one of the most important renewable energy systems, there is a strong need for more efficient use of the services they provide, as well as error detection and performance issues confrontation. Internet of Things (IoT) technology, aims to fill the gap, by offering low cost and sustainable solutions towards the efficient operation of these parks. In this paper, we present an in situ monitoring and alerting system, based on WSN technologies, regarding the early detection of Potential Induced Degradation (PID) and Hotspots failures, that can cause a significant drop in solar panels’ performance. In order to do so, specific non-trivial attributes such as temperature, humidity, irradiance, current and voltage are continuously monitored at panel level, and processed in a cloud based platform to early identify these phenomena. In particular, sensor nodes send data to a centralized local sink module using a multi-hop WSN architecture, in order to establish a robust and large coverage area. Afterwards, the information is propagated to the cloud server, where deterministic diagnostic algorithms are applied. We present the reference architecture of our approach, alongside the corresponding hardware and software structural, individual components, as well as the integration process and the use case that runs over a real solar park.
基于物联网的太阳能园区PID和热点健康监测系统
随着太阳能公园成为最重要的可再生能源系统之一,迫切需要更有效地利用它们提供的服务,以及错误检测和性能问题的对抗。物联网(IoT)技术旨在填补这一空白,为这些园区的高效运营提供低成本和可持续的解决方案。在本文中,我们提出了一种基于WSN技术的现场监测和报警系统,用于早期检测可能导致太阳能电池板性能显著下降的潜在诱导退化(PID)和热点故障。为了做到这一点,特定的重要属性,如温度、湿度、辐照度、电流和电压,在面板水平上被连续监测,并在基于云的平台上进行处理,以早期识别这些现象。其中,传感器节点采用多跳WSN架构将数据发送到集中的本地sink模块,以建立鲁棒的大覆盖区域。然后,信息被传播到云服务器,在那里应用确定性诊断算法。我们展示了我们的方法的参考架构,以及相应的硬件和软件结构,单个组件,以及集成过程和在真实太阳能园区运行的用例。
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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