Defect Identification of Power Line Insulator Based on an Improved yolov4-tiny Algorithm

Weidong Zan, Chaoyi Dong, Jian-gong Zhao, Fu Hao, Dongyang Lei, Zhiming Zhang
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Abstract

With the rapid development of artificial intelligence technology, the collection of power line images through unmanned aerial vehicles (UAV) and the further use of deep learning algorithms to automatically detect power insulator defects is gradually replacing the traditional manual inspection and identification methods. The image capture and machine recognition and learning has gradually become a kind of emerging automatic inspection methods of power line insulators. Aiming at the problems of small target size, complex background, and low defect recognition rate of insulator defects, this paper proposes an insulator defect detection method based on an improved yolov4-tiny deep learning algorithm (IYTDLA). Compared to the traditional yolov4-tiny deep learning algorithm (TYTDLA), the key improvement lies that a coordinate attention (CA) module is introduced after the major feature extraction network to enhance the network feature representation ability. First, based on the original UAV-collected image data sets, the improved algorithm is used to randomly scale captured images, and Gaussian noise is mixed to further enhance the data sets. Then, IYTDLA is applied to discern the two different defects “missing” and “broken” from the power line insulator images captured by UAVs. The experimental results show that the IYTDLA has a higher recognition accuracy than the TYTDLA. Compared to the mAP of TYTDLA, the mean average precision (mAP) of IYTDLA is increased by 0.94%, the average precision (AP) of missing insulator defects of IYTDLA is increased by 1.19%, the AP of insulator damage defects of IYTDLA is increased by 2.99%. At the same time, the performances of IYTDLA are also higher than those of traditional faster-rcnn (FRCNN) and efficientdet (EDET) in terms of recognition accuracy and processing speed. However, IYTDLA also has a processing speed comparable to the TYTDLA. That verifies that both of IYTDLA and TYTDLA are suitable for the deploy applications on mobile devices or embedded devices to implement device-side edge computing.
基于改进yolov4-tiny算法的电力线绝缘子缺陷识别
随着人工智能技术的快速发展,通过无人机采集电力线图像,并进一步利用深度学习算法自动检测电源绝缘子缺陷,正在逐步取代传统的人工检测识别方法。图像采集和机器识别学习逐渐成为一种新兴的电力线绝缘子自动检测方法。针对绝缘子缺陷目标尺寸小、背景复杂、缺陷识别率低等问题,提出了一种基于改进yolov4-tiny深度学习算法(IYTDLA)的绝缘子缺陷检测方法。与传统的yolov4-tiny深度学习算法(TYTDLA)相比,改进的关键在于在主要特征提取网络之后引入了坐标关注(CA)模块,增强了网络特征表示能力。首先,在原始无人机采集图像数据集的基础上,采用改进算法对采集图像进行随机缩放,并混合高斯噪声对数据集进行进一步增强;然后,应用IYTDLA从无人机捕获的电力线绝缘子图像中识别出“缺失”和“破碎”两种不同的缺陷。实验结果表明,IYTDLA比TYTDLA具有更高的识别精度。与TYTDLA的mAP相比,IYTDLA的平均精度(mAP)提高了0.94%,IYTDLA的绝缘子缺失缺陷的平均精度(AP)提高了1.19%,IYTDLA的绝缘子损坏缺陷的平均精度(AP)提高了2.99%。同时,IYTDLA在识别精度和处理速度方面也高于传统的faster-rcnn (FRCNN)和effentdet (EDET)。然而,IYTDLA也具有与TYTDLA相当的处理速度。验证了IYTDLA和TYTDLA都适合在移动设备或嵌入式设备上部署应用程序来实现设备端边缘计算。
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