Huaping Zhou, Bin Deng, Kelei Sun, Shunxiang Zhang, Yongqi Zhang
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Given the lack of skip connections, we designed the multi-convolution coordinate attention block to reduce semantic differences in cascaded features and the gated residual attention block to get more local features. Because most fractures have strip characteristics, we propose the transformer edge atlas spatial pyramid pooling module, which innovatively applies the transformer module and edge detection module to the network so that the network can better capture the edge information and context information of the fracture area. In addition, we use focus loss in training to solve the problem of positive and negative sample imbalances. Experiments were conducted on four publicly available road crack segmentation datasets: Rissbilder, GAPS384, CFD, and CrackTree200. The experimental results reveal that the network outperforms the standard road fracture segmentation models. The code and models are publicly available at https://github.com/mushan0929/UTE-crackNet.</p>","PeriodicalId":501186,"journal":{"name":"The Visual Computer","volume":"35 1","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2024-06-20","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"UTE-CrackNet: transformer-guided and edge feature extraction U-shaped road crack image segmentation\",\"authors\":\"Huaping Zhou, Bin Deng, Kelei Sun, Shunxiang Zhang, Yongqi Zhang\",\"doi\":\"10.1007/s00371-024-03531-y\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p>Cracks in the road surface can cause significant harm. Road crack detection, segmentation, and immediate repair can help reduce the occurrence of risks. Some methods based on convolutional neural networks still have some problems, such as fuzzy edge information, small receptive fields, and insufficient perception ability of local information. To solve the above problems, this paper offers UTE-CrackNet, a novel road crack segmentation network that attempts to increase the generalization ability and segmentation accuracy of road crack segmentation networks. To begin, our design combines the U-shaped structure that enables the model to learn more features. Given the lack of skip connections, we designed the multi-convolution coordinate attention block to reduce semantic differences in cascaded features and the gated residual attention block to get more local features. Because most fractures have strip characteristics, we propose the transformer edge atlas spatial pyramid pooling module, which innovatively applies the transformer module and edge detection module to the network so that the network can better capture the edge information and context information of the fracture area. In addition, we use focus loss in training to solve the problem of positive and negative sample imbalances. Experiments were conducted on four publicly available road crack segmentation datasets: Rissbilder, GAPS384, CFD, and CrackTree200. The experimental results reveal that the network outperforms the standard road fracture segmentation models. 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引用次数: 0
摘要
路面裂缝可造成重大伤害。路面裂缝的检测、分割和及时修复有助于降低风险的发生。一些基于卷积神经网络的方法仍存在一些问题,如边缘信息模糊、感受野小、局部信息感知能力不足等。为了解决上述问题,本文提出了一种新型道路裂缝分割网络 UTE-CrackNet,试图提高道路裂缝分割网络的泛化能力和分割精度。首先,我们的设计结合了 U 型结构,使模型能够学习更多特征。鉴于缺乏跳转连接,我们设计了多卷积坐标注意力块来减少级联特征的语义差异,并设计了门控残差注意力块来获取更多局部特征。由于大多数断裂具有条状特征,我们提出了变压器边缘图集空间金字塔汇集模块,创新性地将变压器模块和边缘检测模块应用到网络中,使网络能更好地捕捉断裂区域的边缘信息和上下文信息。此外,我们还在训练中使用了焦点损耗,以解决正负样本不平衡的问题。我们在四个公开的道路裂缝分割数据集上进行了实验:Rissbilder、GAPS384、CFD 和 CrackTree200。实验结果表明,该网络的性能优于标准道路裂缝分割模型。代码和模型可在 https://github.com/mushan0929/UTE-crackNet 上公开获取。
Cracks in the road surface can cause significant harm. Road crack detection, segmentation, and immediate repair can help reduce the occurrence of risks. Some methods based on convolutional neural networks still have some problems, such as fuzzy edge information, small receptive fields, and insufficient perception ability of local information. To solve the above problems, this paper offers UTE-CrackNet, a novel road crack segmentation network that attempts to increase the generalization ability and segmentation accuracy of road crack segmentation networks. To begin, our design combines the U-shaped structure that enables the model to learn more features. Given the lack of skip connections, we designed the multi-convolution coordinate attention block to reduce semantic differences in cascaded features and the gated residual attention block to get more local features. Because most fractures have strip characteristics, we propose the transformer edge atlas spatial pyramid pooling module, which innovatively applies the transformer module and edge detection module to the network so that the network can better capture the edge information and context information of the fracture area. In addition, we use focus loss in training to solve the problem of positive and negative sample imbalances. Experiments were conducted on four publicly available road crack segmentation datasets: Rissbilder, GAPS384, CFD, and CrackTree200. The experimental results reveal that the network outperforms the standard road fracture segmentation models. The code and models are publicly available at https://github.com/mushan0929/UTE-crackNet.