阻尼器
电力传输
计算机科学
光学(聚焦)
特征(语言学)
人工智能
传输(电信)
输电线路
特征提取
卷积(计算机科学)
直线(几何图形)
模式识别(心理学)
实时计算
计算机视觉
工程类
人工神经网络
控制工程
电气工程
哲学
物理
光学
电信
语言学
数学
几何学
作者
Ye Zhang,Botao Li,Jinghao Shang,Xinbo Huang,Pengchao Zhai,Cuicui Geng
标识
DOI:10.1109/tim.2023.3331418
摘要
As a crucial component in power transmission lines, structural defects in dampers can significantly reduce their ability to suppress wire vibrations, posing a serious threat to the transmission line infrastructure. Most existing methods for damper defect detection are based on deep learning. However, these methods face challenges when applied to unmanned aerial vehicle (UAV)-captured images of dampers, as they often appear in complex backgrounds and contain small and densely distributed objects. This research aims to improve the accuracy and speed of damper defect recognition by proposing an attention-guided damper defect detection network called DSA-Net, which includes components such as damper attention (DA), Stile path aggregation network (Stile PAN), and ASFFs. First, to accurately extract the features of the damper while reducing background interference, a novel attention mechanism called DA is introduced, based on the shape of the damper and bidirectional stripe convolution. This mechanism allows the network to focus on key regions in the image without incurring expensive computational costs. Second, the Stile PAN feature fusion structure is employed to integrate shallow-level information of small targets. Finally, a single-layer ASFFs structure is utilized to autonomously learn information about small and densely distributed targets from the detection feature maps output by Stile PAN. On the transmission line damper (TLD) dataset, DSA-Net achieves an mAP0.5 of 0.935, an mAP0.5:0.95 of 0.789, and an inference speed of 7.2 ms.
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