Surface Damage Detection of Line Insulators Using Deep Learning Algorithms to Avoid Insulation Failure

K. M. Rayhan, Shuvo Dip Roy, Md. Fahimul Haque Sadid, Kazi Firoz Ahmed, A. Shatil
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Abstract

The power system's reliability dramatically depends on the high voltage line insulators. However, the surface of these insulators is frequently damaged because of the outdoor environment, which includes complicated landforms and unpredictable weather. Damage to the insulator's surface can lead to short circuits, permanent damage to the transmission line, and even blackouts. To deliver quality service, it is essential to keep track of the condition of these insulators. As traditional fault-detection systems have become more time- and labor-intensive, a YOLOv4-based detection approach is proposed here to achieve fast and precise damage detection and classification of line insulators. YOLOv4 is a Deep Learning (DL) algorithm model that operates on the darknet framework. The research findings show that 97.711% is the maximum average, depending on detecting YOLOv4 for insulators. Insulator damage has a maximum AP value of 98.17%, and discolored Insulator has a maximum AP value of 97.07%. When the system is trained on the insulator data set, the overall m-AP (mean Average Precision) value is 97.65%. The detecting speed in virtual environments for YOLOv4s is 43 FPS, and it has a greater detection rate.
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基于深度学习算法的线路绝缘子表面损伤检测避免绝缘失效
电力系统的可靠性在很大程度上取决于高压线路绝缘子。然而,由于室外环境,包括复杂的地形和不可预测的天气,这些绝缘子的表面经常损坏。绝缘体表面的损坏会导致短路,对输电线路造成永久性损坏,甚至停电。为了提供高质量的服务,跟踪这些绝缘子的状况是至关重要的。针对传统的线路绝缘子故障检测系统耗时耗力大的问题,本文提出了一种基于yolov4的线路绝缘子故障检测方法,以实现线路绝缘子的快速、精确的损伤检测和分类。YOLOv4是一种运行在暗网框架上的深度学习(DL)算法模型。研究结果表明,97.711%为最大平均值,取决于对绝缘子的YOLOv4检测。绝缘子损坏的最大AP值为98.17%,绝缘子变色的最大AP值为97.07%。当系统在绝缘子数据集上进行训练时,总体m-AP (mean Average Precision)值为97.65%。YOLOv4s在虚拟环境下的检测速度为43 FPS,具有更高的检测率。
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