用深度图像提升坑洼检测精度,实现实时测量。
An Enhanced YOLOv8 Model for Real-Time and Accurate Pothole Detection and Measurement
- 融合深度图与RGB图,改进YOLOv8结构增强边缘识别
- 检测精度提升至93.8% mAP@50,深度与周长测量更准
- 轻量模型适合车载部署,适配智能交通系统
坑洼导致车辆损伤和交通事故,早期精准检测至关重要。现有方法多依赖2D RGB图像,难以分析坑洼物理特征。本文构建了公开的RGB-D数据集PothRGBD(1000张图像),并提出基于YOLOv8n-seg的改进模型,引入动态蛇形卷积(DSConv)、简单注意力模块(SimAM)和高斯误差线性单元(GELU)。该模型能更准确分割不规则边缘坑洼,并在深度图上实现高精度周长与深度测量。相比标准YOLOv8n-seg(91.9%精度、85.2%召回率、91.9% mAP@50),改进模型达93.7%精度、90.4%召回率、93.8% mAP@50,分别提升1.96%、6.13%、2.07%。模型轻量化,适合实时应用,可集成于深度学习驱动的智能交通系统中。
原文摘要 · Abstract (English)
Potholes cause vehicle damage and traffic accidents, creating serious safety and economic problems. Therefore, early and accurate detection of potholes is crucial. Existing detection methods are usually only based on 2D RGB images and cannot accurately analyze the physical characteristics of potholes. In this paper, a publicly available dataset of RGB-D images (PothRGBD) is created and an improved YOLOv8-based model is proposed for both pothole detection and pothole physical features analysis. The Intel RealSense D415 depth camera was used to collect RGB and depth data from the road surfaces, resulting in a PothRGBD dataset of 1000 images. The data was labeled in YOLO format suitable for segmentation. A novel YOLO model is proposed based on the YOLOv8n-seg architecture, which is structurally improved with Dynamic Snake Convolution (DSConv), Simple Attention Module (SimAM) and Gaussian Error Linear Unit (GELU). The proposed model segmented potholes with irregular edge structure more accurately, and performed perimeter and depth measurements on depth maps with high accuracy. The standard YOLOv8n-seg model achieved 91.9% precision, 85.2% recall and 91.9% mAP@50. With the proposed model, the values increased to 93.7%, 90.4% and 93.8% respectively. Thus, an improvement of 1.96% in precision, 6.13% in recall and 2.07% in mAP was achieved. The proposed model performs pothole detection as well as perimeter and depth measurement with high accuracy and is suitable for real-time applications due to its low model complexity. In this way, a lightweight and effective model that can be used in deep learning-based intelligent transportation solutions has been acquired.
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