基于热红外和光学遥感的光伏电池板故障监测技术研究

Wei Zhang, Guanghui Wang, Guoqing Yao, Chen Lu, Yu Liu
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引用次数: 0

摘要

摘要快速获取光伏电池板的运行状态并排除故障,可为光伏电站的发展节约管理和维护成本,对光伏电站管理和发电量保障具有重要意义。利用遥感技术识别光伏电池板故障发展迅速,但目前的研究通常仅依靠单一的光学数据源来识别和统计光伏电场中光伏电池板的面积,虽然有关于光伏电池板故障检测的文献,但仅测试了光伏电池板的表面故障识别,而内部故障(如电池板坏点或坏线)由于光学遥感的局限性而无法识别。本文提出了一种基于多源遥感的光伏板故障监测技术。利用光学和热红外混合数据,结合深度学习技术,实现对光伏板阵列故障的快速、准确识别和定位。不仅能自动识别被灰尘、异物遮挡的光伏板,还能定位出有坏点、坏线的光伏板,大大提高了遥感光伏板故障监测的能力和效果。本实验应用了高分辨率无人机(UAV)光学图像和热红外图像。利用 Mask RCNN 算法对光学图像中的光伏板进行精确定位和编号。然后,针对面板范围内光学图像和热红外图像的多类型故障特征,建立故障场景分类模型,从而识别出光伏面板的灰尘遮挡、树枝遮挡、鸟粪遮挡、内部坏点和坏线等五种故障类型,有效解决了单一光学遥感图像在正常情况下无法识别光伏面板内部组件故障的问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Study on Fault Monitoring Technology of Photovoltaic Panel Based on Thermal Infrared and Optical Remote Sensing
Abstract. Rapid access to the operating status of Photovoltaic (PV) panels and troubleshooting can save management and maintenance costs for the development of PV power plants, which is important for PV power plant management and power generation capacity assurance. The use of remote sensing technology to identify the faults of photovoltaic panels has developed rapidly, however, current research usually relies only on a single optical data source to identify and count the area of PV panels in a PV electric field, although there are literature on PV panel fault detection, only the surface fault identification of PV panels is tested, while the internal faults (such as panel bad points or bad lines) cannot be identified because of the limitations of optical remote sensing. In this paper, a photovoltaic panel fault monitoring technology based on multi-source remote sensing is proposed. The optical and thermal infrared hybrid data combined with deep learning technology are used to achieve rapid and accurate fault identification and localization of PV panel arrays. It can not only automatically identify PV panels that are obscured by dust and foreign objects, but also locate PV panels that have bad dots or bad lines, which greatly improves the ability and effectiveness of remote sensing PV panel fault monitoring. The high-resolution unmanned air vehicle (UAV) optical image and thermal infrared image are applied in this experiment. The Mask RCNN algorithm is used to accurately locate and number the photovoltaic panel of the optical image. Then, the fault scene classification model is established for the multi-type fault characteristics of the optical image and thermal infrared image within the panel range, so as to identify five types of faults, such as dust cover, branch cover, bird droppings cover, internal bad points and bad lines of PV panel, which effectively solves the problem that the single optical remote sensing image cannot identify the internal component faults of the photovoltaic panel under normal conditions.
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