基于深度学习和微调的无人机图像损伤光伏板检测与分割

L. F. D. F. Souza, T. M. Castro, L. D. O. Santos, A. G. Marques, J. C. Nascimento, Matheus Araujo dos Santos, G. F. B. Severiano, P. P. Rebouças Filho
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引用次数: 0

摘要

能源消耗是社会各个领域的直接影响因素。不同的能源生产技术以可再生资源为基础,作为有限资源消耗的替代品。在这些技术中,光伏板代表了一种有效的能源生产解决方案和可持续消费的选择。电池板损坏的问题给发电带来了许多问题,从发电中断到金融投资损失。提出了一种基于深度学习的高效检测模型和基于微调的不同模型,用于光伏板损伤的分割。使用Detectron2卷积网络在可检测面板中获得78%的检测准确率和95%的精度,在本研究最佳生成模型中光伏面板分割问题也获得99.91%的精度。该模型在面板检测和分割方面表现出了极大的有效性,超越了已有的文献成果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Detection and Segmentation of Damaged Photovoltaic Panels Using Deep Learning and Fine-tuning in Images Captured by Drone
Energy consumption is a direct impact factor in various sectors of society. Different technologies for energy generation are based on renewable sources and used as alternatives to the consumption of finite resources. Among these technologies, photovoltaic panels represent an efficient solution for energy generation and an option for sustainable consumption. The problem of damaged panels brings numerous problems in energy generation, from the interruption of generation to losses through financial investments. The proposed study presents an efficient model based on deep learning for detection and different models based on fine-tuning for the segmentation of damaged photovoltaic panels. The use of the Detectron2 convolutional network obtained 78% of Accuracy for detection and 95% precision in the detectable panels, also obtaining 99.91% for the segmentation problem of photovoltaic panels in the best-generated model in this study. The proposed model showed great effectiveness for panel detection and segmentation, surpassing works found in the literature.
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