Cost-Effective High-Definition Building Mapping: Box-Supervised Rooftop Delineation Using High- Resolution Remote Sensing Imagery

Deep learning–based high-definition building mapping faces challenges due to the need for extensive high-quality training data, leading to significant annotation costs. To mitigate this challenge, we introduce Box2Boundary, a novel approach using box supervision, in conjunction with the segment anything model (SAM), to achieve cost-effective rooftop delineation. Leveraging the tiny InternImage architecture for enhanced feature extraction and using the dynamic scale training strategy to tackle scale variance, Box2Boundary demonstrates superior performance compared to alternative box-supervised methods. Extensive experiments on the Wuhan University Building Data Set validate our method's effectiveness, showcasing remarkable results with an average precision of 48.7%, outperforming DiscoBox, BoxInst, and Box2Mask by 22.0%, 11.3%, and 2.0%, respectively. In semantic segmentation, our method achieved an F 1 score of 89.54%, an overall accuracy (OA) of 97.73%, and an intersection over union (IoU) of 81.06%, outperforming all other bounding-box-supervised methods, image tag–supervised methods, and most scribble-supervised methods. It also demonstrated competitive performance compared to fully supervised methods and scribble-supervised methods. SAM integration further boosts performance, yielding an F 1 score of 90.55%, OA of 97.84%, and IoU of 82.73%. Our approach's efficacy extends to the Waterloo Building and xBD Data Sets, achieving an OA of 98.48%, IoU of 84.72%, and F 1 score of 91.73% for the former and an OA of 97.32%, IoU of 60.10%, and F 1 score of 75.08% for the latter. These results underscore the method's robustness and cost-effectiveness in rooftop delineation across diverse data sets.

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Publication Details

Journal
Photogrammetric Engineering & Remote Sensing
Published
2025-03-27
DOI
https://doi.org/10.14358/pers.24-00115r3
Primary Topic
Remote Sensing and LiDAR Applications
Type
article
Field-Weighted Citation Impact
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article

Cost-Effective High-Definition Building Mapping: Box-Supervised Rooftop Delineation Using High- Resolution Remote Sensing Imagery

Linlin Xu, Hongjie He, Michael A. Chapman, Lingfei Ma et al.
Photogrammetric Engineering & Remote Sensing
Remote Sensing and LiDAR Applications
article

Cost-Effective High-Definition Building Mapping: Box-Supervised Rooftop Delineation Using High- Resolution Remote Sensing Imagery

Linlin Xu, Hongjie He, Michael A. Chapman, Lingfei Ma, Jonathan Li
article en

Abstract

Deep learning–based high-definition building mapping faces challenges due to the need for extensive high-quality training data, leading to significant annotation costs. To mitigate this challenge, we introduce Box2Boundary, a novel approach using box supervision, in conjunction with the segment anything model (SAM), to achieve cost-effective rooftop delineation. Leveraging the tiny InternImage architecture for enhanced feature extraction and using the dynamic scale training strategy to tackle scale variance, Box2Boundary demonstrates superior performance compared to alternative box-supervised methods. Extensive experiments on the Wuhan University Building Data Set validate our method's effectiveness, showcasing remarkable results with an average precision of 48.7%, outperforming DiscoBox, BoxInst, and Box2Mask by 22.0%, 11.3%, and 2.0%, respectively. In semantic segmentation, our method achieved an F 1 score of 89.54%, an overall accuracy (OA) of 97.73%, and an intersection over union (IoU) of 81.06%, outperforming all other bounding-box-supervised methods, image tag–supervised methods, and most scribble-supervised methods. It also demonstrated competitive performance compared to fully supervised methods and scribble-supervised methods. SAM integration further boosts performance, yielding an F 1 score of 90.55%, OA of 97.84%, and IoU of 82.73%. Our approach's efficacy extends to the Waterloo Building and xBD Data Sets, achieving an OA of 98.48%, IoU of 84.72%, and F 1 score of 91.73% for the former and an OA of 97.32%, IoU of 60.10%, and F 1 score of 75.08% for the latter. These results underscore the method's robustness and cost-effectiveness in rooftop delineation across diverse data sets.

Photogrammetric Engineering & Remote SensingVol. 91(4)
Central University of Finance and Economics (CN), University of Waterloo (CA), University of Calgary (CA), Toronto Metropolitan University (CA)
Openalex Percentile: Top 94%
Remote Sensing and LiDAR Applications
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