Detecting Behind-the-Meter PV Installation Using Convolutional Neural Networks

Sadegh Vejdan, K. Mason, S. Grijalva
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引用次数: 2

Abstract

Increased penetration of behind-the-meter (BTM) PV installations can cause numerous challenges in planning and operation of distribution systems. Utilities must accurately record the installed PVs in their territory and keep their PV database updated. However, many utilities do not have enough visibility on the actual installed PVs due the growing number of unauthorized PV installations as well as the complexity of data tracking and updating the databases even for authorized PVs. In this paper, a data-driven classification method is proposed for detecting BTM PV installation using convolutional neural networks and synthetic net load profiles generated from AMI data. The network is trained and tested on 50 folds of the dataset and the testing classification accuracy per each fold is calculated. Results show that the median of per-fold testing accuracies is 98.9%. In terms of average error, only 0.7% of the customers with PV are not detected. This is significantly less than the 6% error in the next best method. The impact of training data parameters, such as the size of dataset and label errors on the accuracy and computational time of the method is also studied and characterized. Using only the available AMI data, the proposed method can help utilities accurately monitor BTM PV systems and keep their databases updated and thus avoid the costs of operation and planning errors.
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使用卷积神经网络检测电表后的光伏安装
电表后(BTM)光伏装置的日益普及会给配电系统的规划和运行带来许多挑战。公用事业公司必须准确记录其区域内安装的光伏,并保持光伏数据库的更新。然而,由于未经授权的光伏安装数量不断增加,以及数据跟踪和更新数据库的复杂性,许多公用事业公司对实际安装的光伏没有足够的可视性。本文提出了一种基于卷积神经网络和AMI数据生成的综合网负荷曲线的BTM光伏安装检测数据驱动分类方法。该网络在50层数据集上进行训练和测试,并计算每层的测试分类准确率。结果表明,每倍检测准确率中位数为98.9%。从平均误差来看,只有0.7%的有PV的客户没有被检测到。这比下一个最佳方法的6%的误差要小得多。研究并表征了训练数据参数(如数据集大小和标签误差)对方法精度和计算时间的影响。该方法仅使用可用的AMI数据,就可以帮助公用事业公司准确地监控BTM光伏系统,并保持其数据库的更新,从而避免运营成本和规划错误。
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