基于正校正RGB无人机图像的太阳能光伏组件缺陷自动现场检测与定位

Hafsa Elidrissi, Hafsa Achakir, Yahya Zefri, I. Sebari, G. Aniba, H. Hajji
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引用次数: 2

摘要

在太阳能光伏发电装置的维护框架中,组件的缺陷检测、识别和现场定位对保证发电的可靠性和效率起着关键作用。在这种情况下,通过无人机(uav)进行的遥感图像被积极使用,因为它可以更快、更经济、更无接触地对模块表面进行表征,并进行大规模部署。我们在此开发了一种端到端方法,基于无人机获取的RGB图像来检测、识别和定位光伏装置的现场缺陷。该方法基本上是为大规模应用而设计的,包括:(1)摄影测量图像采集和后处理阶段,产生一个覆盖整个被检查地点的正校正和地理参考支撑;(2)模块提取阶段,生成模块的单个图像;(3)基于深度学习的缺陷检测阶段,使用YOLOv4架构的微调实例。该方法的开发、验证和测试使用了从两个大型光伏站点收集的数据集,包括35 305个模块。所开发的缺陷检测器在验证集和测试集上的平均精度(mAP)分别为83%和73%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Automatic on Field Detection and Localization of Defective Solar Photovoltaic Modules from Orthorectified RGB UAV Imagery
In the maintenance framework of solar photovoltaic (PV) installations, modules’ defect detection, identification and on field localization play a key role in preserving the reliability and efficiency of the electrical power generation. Remotely sensed imagery by means of Unmanned Aerial Vehicles (UAVs) is actively used in this context as it allows faster, cost-effective and contactless characterization of modules’ surface together with large-scale deployment. We develop herein an end-to-end approach to detect, identify and locate on field defects on PV installations based on RGB imagery acquired by UAVs. The approach is fundamentally designed for large-scale applications and comprises: (1) A photogrammetric image acquisition and post-processing phase that produces one orthorectified and georeferenced support covering the entire inspected site; (2) A module extraction phase that yields the individual images of modules; and (3) A deep learning-based defect detection stage using a fine-tuned instance of the YOLOv4 architecture. The approach was developed, validated and tested using a dataset collected from two large-scale PV sites comprising 35 305 modules. The developed defect detector scored a mean Average Precision (mAP) of 83% and 73% respectively on the validation and test sets.
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