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Autori principali: Xiao, Xi, Zhang, Yunbei, Wang, Janet, Zhao, Lin, Wei, Yuxiang, Li, Hengjia, Li, Yanshu, Song, Xinyuan, Wang, Xiao, Roy, Swalpa Kumar, Xu, Hao, Wang, Tianyang
Natura: Preprint
Pubblicazione: 2025
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Accesso online:https://arxiv.org/abs/2507.17353
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author Xiao, Xi
Zhang, Yunbei
Wang, Janet
Zhao, Lin
Wei, Yuxiang
Li, Hengjia
Li, Yanshu
Song, Xinyuan
Wang, Xiao
Roy, Swalpa Kumar
Xu, Hao
Wang, Tianyang
author_facet Xiao, Xi
Zhang, Yunbei
Wang, Janet
Zhao, Lin
Wei, Yuxiang
Li, Hengjia
Li, Yanshu
Song, Xinyuan
Wang, Xiao
Roy, Swalpa Kumar
Xu, Hao
Wang, Tianyang
contents Accurate road damage detection is crucial for timely infrastructure maintenance and public safety, but existing vision-only datasets and models lack the rich contextual understanding that textual information can provide. To address this limitation, we introduce RoadBench, the first multimodal benchmark for comprehensive road damage understanding. This dataset pairs high resolution images of road damages with detailed textual descriptions, providing a richer context for model training. We also present RoadCLIP, a novel vision language model that builds upon CLIP by integrating domain specific enhancements. It includes a disease aware positional encoding that captures spatial patterns of road defects and a mechanism for injecting road-condition priors to refine the model's understanding of road damages. We further employ a GPT driven data generation pipeline to expand the image to text pairs in RoadBench, greatly increasing data diversity without exhaustive manual annotation. Experiments demonstrate that RoadCLIP achieves state of the art performance on road damage recognition tasks, significantly outperforming existing vision-only models by 19.2%. These results highlight the advantages of integrating visual and textual information for enhanced road condition analysis, setting new benchmarks for the field and paving the way for more effective infrastructure monitoring through multimodal learning.
format Preprint
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publishDate 2025
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spellingShingle RoadBench: A Vision-Language Foundation Model and Benchmark for Road Damage Understanding
Xiao, Xi
Zhang, Yunbei
Wang, Janet
Zhao, Lin
Wei, Yuxiang
Li, Hengjia
Li, Yanshu
Song, Xinyuan
Wang, Xiao
Roy, Swalpa Kumar
Xu, Hao
Wang, Tianyang
Computational Engineering, Finance, and Science
Accurate road damage detection is crucial for timely infrastructure maintenance and public safety, but existing vision-only datasets and models lack the rich contextual understanding that textual information can provide. To address this limitation, we introduce RoadBench, the first multimodal benchmark for comprehensive road damage understanding. This dataset pairs high resolution images of road damages with detailed textual descriptions, providing a richer context for model training. We also present RoadCLIP, a novel vision language model that builds upon CLIP by integrating domain specific enhancements. It includes a disease aware positional encoding that captures spatial patterns of road defects and a mechanism for injecting road-condition priors to refine the model's understanding of road damages. We further employ a GPT driven data generation pipeline to expand the image to text pairs in RoadBench, greatly increasing data diversity without exhaustive manual annotation. Experiments demonstrate that RoadCLIP achieves state of the art performance on road damage recognition tasks, significantly outperforming existing vision-only models by 19.2%. These results highlight the advantages of integrating visual and textual information for enhanced road condition analysis, setting new benchmarks for the field and paving the way for more effective infrastructure monitoring through multimodal learning.
title RoadBench: A Vision-Language Foundation Model and Benchmark for Road Damage Understanding
topic Computational Engineering, Finance, and Science
url https://arxiv.org/abs/2507.17353