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轻量级SCL-YOLOv8:一种用于输电线路异物检测的高性能模型。

Lightweight SCL-YOLOv8: A High-Performance Model for Transmission Line Foreign Object Detection.

作者信息

Ji Houling, Chen Xishi, Bai Jingpan, Gong Chengjie

机构信息

School of Computer Science, Yangtze University, Jingzhou 434023, China.

出版信息

Sensors (Basel). 2025 Aug 19;25(16):5147. doi: 10.3390/s25165147.

DOI:10.3390/s25165147
PMID:40872007
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC12390271/
Abstract

Transmission lines are widely distributed in complex environments, making them susceptible to foreign object intrusion, which could lead to serious consequences, i.e., power outages. Currently, foreign object detection on transmission lines is primarily conducted through UAV-based field inspections. However, the captured data must be transmitted back to a central facility for analysis, resulting in low efficiency and the inability to perform real-time, industrial-grade detection. Although recent YOLO series models can be deployed on UAVs for object detection, these models' substantial computational requirements often exceed the processing capabilities of UAV platforms, limiting their ability to perform real-time inference tasks. In this study, we propose a novel lightweight detection algorithm, SCL-YOLOv8, which is based on the original YOLO model. We introduce StarNet to replace the CSPDarknet53 backbone as the feature extraction network, thereby reducing computational complexity while maintaining high feature extraction efficiency. We design a lightweight module, CGLU-ConvFormer, which enhances multi-scale feature representation and local feature extraction by integrating convolutional operations with gating mechanisms. Furthermore, the detection head of the original YOLO model is improved by introducing shared convolutional layers and group normalization, which helps reduce redundant computations and enhances multi-scale feature fusion. Experimental results demonstrate that the proposed model not only improves the detection accuracy but also significantly reduces the number of model parameters. Specifically, SCL-YOLOv8 achieves a mAP@0.5 of 94.2% while reducing the number of parameters by 56.8%, FLOPS by 45.7%, and model size by 50% compared with YOLOv8n.

摘要

输电线路广泛分布于复杂环境中,容易受到异物侵入,这可能导致严重后果,即停电。目前,输电线路上的异物检测主要通过基于无人机的现场检查来进行。然而,采集到的数据必须传回中央设施进行分析,导致效率低下,无法进行实时的工业级检测。尽管最近的YOLO系列模型可以部署在无人机上进行目标检测,但这些模型巨大的计算需求常常超过无人机平台的处理能力,限制了它们执行实时推理任务的能力。在本研究中,我们提出了一种基于原始YOLO模型的新型轻量级检测算法SCL-YOLOv8。我们引入StarNet来取代CSPDarknet53主干作为特征提取网络,从而在保持高特征提取效率的同时降低计算复杂度。我们设计了一个轻量级模块CGLU-ConvFormer,通过将卷积操作与门控机制相结合来增强多尺度特征表示和局部特征提取。此外,通过引入共享卷积层和组归一化对原始YOLO模型的检测头进行了改进,这有助于减少冗余计算并增强多尺度特征融合。实验结果表明,所提出的模型不仅提高了检测精度,还显著减少了模型参数数量。具体而言,与YOLOv8n相比,SCL-YOLOv8实现了94.2%的mAP@0.5,同时参数数量减少了56.8%,FLOPS减少了45.7%,模型大小减少了50%。

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3
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