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Automated pixel-level pavement distress detection based on stereo vision and deep learning
Abstract Automated pavement distress detection based on 2D images is facing various challenges. To efficiently complete the crack and pothole segmentation in a practical environment, an automated pixel-level pavement distress detection framework integrating stereo vision and deep learning is developed in this study. Based on the multi-view stereo imaging system, multi-feature pavement image datasets containing color images, depth images and color-depth overlapped images are established, providing a new perspective for deep learning. To alleviate computational burden, a modified U-net deep learning architecture introducing depthwise separable convolution is proposed for crack and pothole segmentation. These methods are tested in asphalt roads with different circumstances. The results show that the 3D pavement image achieves millimeter-level accuracy. The enhanced 3D crack segmentation model outperforms other models in terms of segmentation accuracy and inference speed. After obtaining the high-resolution pothole segmentation map, the automated pothole volume measurement is realized with high accuracy.
Highlights Stereo vision and deep learning were integrated for automated pavement crack and pothole segmentation. Multi-feature image datasets containing 2D, 3D and enhanced-3D images were established by stereo vision. A modified U-net embedding depthwise separable convolution was proposed for faster segmentation. The deep learning efficiency using different types of images was investigated. Automated pothole volume measurement was achieved based on 3D image segmentation.
Automated pixel-level pavement distress detection based on stereo vision and deep learning
Abstract Automated pavement distress detection based on 2D images is facing various challenges. To efficiently complete the crack and pothole segmentation in a practical environment, an automated pixel-level pavement distress detection framework integrating stereo vision and deep learning is developed in this study. Based on the multi-view stereo imaging system, multi-feature pavement image datasets containing color images, depth images and color-depth overlapped images are established, providing a new perspective for deep learning. To alleviate computational burden, a modified U-net deep learning architecture introducing depthwise separable convolution is proposed for crack and pothole segmentation. These methods are tested in asphalt roads with different circumstances. The results show that the 3D pavement image achieves millimeter-level accuracy. The enhanced 3D crack segmentation model outperforms other models in terms of segmentation accuracy and inference speed. After obtaining the high-resolution pothole segmentation map, the automated pothole volume measurement is realized with high accuracy.
Highlights Stereo vision and deep learning were integrated for automated pavement crack and pothole segmentation. Multi-feature image datasets containing 2D, 3D and enhanced-3D images were established by stereo vision. A modified U-net embedding depthwise separable convolution was proposed for faster segmentation. The deep learning efficiency using different types of images was investigated. Automated pothole volume measurement was achieved based on 3D image segmentation.
Automated pixel-level pavement distress detection based on stereo vision and deep learning
Guan, Jinchao (author) / Yang, Xu (author) / Ding, Ling (author) / Cheng, Xiaoyun (author) / Lee, Vincent C.S. (author) / Jin, Can (author)
2021-05-30
Article (Journal)
Electronic Resource
English
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