Contrasting YOLOv7, SSD, and DETR on Insulator Identification under Small-Sample Learning

IF 0.6 Q4 ENGINEERING, ELECTRICAL & ELECTRONIC Recent Advances in Electrical & Electronic Engineering Pub Date : 2023-10-13 DOI:10.2174/0123520965248875231004060818
Yanli Yang, Xinlin Wang, Weisheng Pan
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引用次数: 0

Abstract

Background: Daily inspections of insulators are necessary because they are indispensable components for power transmission lines. Using deep learning to monitor insulators is a newly developed method. However, most deep learning-based detection methods rely on a large training sample set, which consumes computing resources and increases the workload of sample labeling. The selection of learning models to monitor insulators becomes problematic. Objective: Through comparative analysis, a model suitable for small-sample insulator learning is found to provide a reference for the research and application of insulator detection. objective: We intend to find a model suitable for small-sample learning of insulators, which can provide a reference for the research and application of insulator detection. Methods: This paper compares some of the latest deep learning models, YOLOv7, SSD, and DETR, for insulator detection based on small-sample learning. The small sample here means that the number of samples and their proportion to the total sample are relatively small. Two public insulator image sets, InsulatorDataSet with 600 insulator images and Transmission-line-pictures (TLP) with 1230 insulator images in the natural background are selected to test the performance of these models. method: This paper compares some latest deep learning models which are the YOLOv7, the SSD, and the DETR, for insulator detection based on small-sample learning. Few public insulator datasets are available on the internet. Two public insulator image sets, InsulatorDataSet with 600 insulator images and Transmission-line-pictures (TLP) with 1230 insulator images in natural background, are selected to test the performance of these models. Results: Tests on two public insulator image sets, InsulatorDataSet and TLP, show that the recognition rates of YOLOv7, DETR, and SSD are arranged from high to low. The DETR and the YOLOv7 have stable performance, while the SSD lacks stable performance on the learning time and recognition rate. Conclusion: The in-domain and cross-domain scenario tests show that YOLOv7 is more suitable for insulator detection under small-sample conditions among the three models. other: None
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小样本学习下YOLOv7、SSD和DETR绝缘子识别的对比
背景:由于绝缘子是输电线路不可缺少的部件,因此对绝缘子进行日常检查是必要的。利用深度学习对绝缘体进行监测是一种新发展起来的方法。然而,大多数基于深度学习的检测方法依赖于一个大的训练样本集,这消耗了计算资源,增加了样本标记的工作量。选择学习模型来监测绝缘体成为一个问题。目的:通过对比分析,找到适合小样本绝缘子学习的模型,为绝缘子检测的研究和应用提供参考。目的:寻找一种适合于绝缘子小样本学习的模型,为绝缘子检测的研究和应用提供参考。方法:本文比较了基于小样本学习的绝缘子检测的最新深度学习模型YOLOv7、SSD和DETR。这里的小样本是指样本数量及其占总样本的比例相对较小。选择包含600张绝缘子图像的InsulatorDataSet和包含1230张自然背景绝缘子图像的输电线路图像(TLP)两个公共绝缘子图像集来测试这些模型的性能。方法:比较了基于小样本学习的绝缘子检测的最新深度学习模型YOLOv7、SSD和DETR。互联网上很少有公开的绝缘体数据集。选择包含600张绝缘子图像的InsulatorDataSet和包含1230张自然背景下绝缘子图像的输电线路图像(TLP)两个公共绝缘子图像集来测试这些模型的性能。结果:在InsulatorDataSet和TLP两个公共绝缘子图像集上的测试表明,YOLOv7、DETR和SSD的识别率由高到低排列。DETR和YOLOv7性能稳定,SSD在学习时间和识别率上表现不稳定。结论:域内和跨域场景测试表明,三种模型中YOLOv7更适合小样本条件下的绝缘子检测。其他:无
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来源期刊
Recent Advances in Electrical & Electronic Engineering
Recent Advances in Electrical & Electronic Engineering ENGINEERING, ELECTRICAL & ELECTRONIC-
CiteScore
1.70
自引率
16.70%
发文量
101
期刊介绍: Recent Advances in Electrical & Electronic Engineering publishes full-length/mini reviews and research articles, guest edited thematic issues on electrical and electronic engineering and applications. The journal also covers research in fast emerging applications of electrical power supply, electrical systems, power transmission, electromagnetism, motor control process and technologies involved and related to electrical and electronic engineering. The journal is essential reading for all researchers in electrical and electronic engineering science.
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