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引用次数: 0
摘要
本文提出了一种基于深度学习的混合模型,结合YOLOv5和Mask R-CNN对混凝土结构蜂窝缺陷进行检测和实例分割。该方法将YOLOv5的快速目标检测特性与Mask R-CNN的精确实例分割特性相结合,有效地解决和定位结构图像中的缺陷区域。使用包含1991个注释图像的硅数据集来训练模型并进行评估。该系统包含升级的预处理、规范化和非最大抑制(NMS),以确保鲁棒性和最佳性能。该模型的训练准确率为98.26%,验证准确率为97.80%。实验结果表明,该方法在多个指标上均具有很高的有效性,如Dice Similarity Coefficient为0.9210,Matthews Correlation Coefficient为0.9620,mean Average Precision (mAP)为0.9752,f1评分为0.9835,Precision为0.9843,Recall为0.9812,PR-AUC为0.9752,IoU评分为0.9515,校准曲线误差为0.1800。该方法具有精度高、泛化性好、分割性能强等特点,适用于建筑和民用基础设施健康监测中的真实结构缺陷检测。
Real-time detection and localization of honeycomb defects in concrete pillars using hybrid deep learning models.
This paper presents a hybrid model based on deep learning for the detection and instance segmentation of defects in honeycombs of concrete structures with YOLOv5 and Mask R-CNN. The approach combines the fast object detection feature of YOLOv5 with the precise instance segmentation feature of Mask R-CNN to effectively resolve and localize defect areas in structural images. A silicon dataset containing 1991 annotated images was utilized to train the model and evaluate. The system contains upgraded preprocessing, normalization, and Non-Maximum Suppression (NMS) to confirm robust and best performance. The model attained 98.26% training accuracy and 97.80% validation accuracy. Experimental results show very high efficacy over various measures, such as a Dice Similarity Coefficient of 0.9210, Matthews Correlation Coefficient of 0.9620, mean Average Precision (mAP) of 0.9752, F1-score of 0.9835, Precision of 0.9843, Recall of 0.9812, PR-AUC of 0.9752, IoU score of 0.9515, and Calibration Curve Error of 0.1800. The proposed method provides high accuracy, superior generalization, and robust segmentation performance, thus, it is highly suitable for real structural flaw inspection in construction and civil infrastructure health monitoring.
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