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Color-Coated Steel Sheet Roof Building Extraction from External Environment of High-Speed Rail Based on High-Resolution Remote Sensing Images

The identification of color-coated steel sheet (CCSS) roof buildings in the external environment is of great significance for the operational security of high-speed rail systems. While high-resolution remote sensing images offer an efficient approach to identify CCSS roof buildings, achieving accura...

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Published in:Remote sensing (Basel, Switzerland) Switzerland), 2023-08, Vol.15 (16), p.3933
Main Authors: Li, Yingjie, Jin, Weiqi, Qiu, Su, Zuo, Dongsheng, Liu, Jun
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Language:English
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description The identification of color-coated steel sheet (CCSS) roof buildings in the external environment is of great significance for the operational security of high-speed rail systems. While high-resolution remote sensing images offer an efficient approach to identify CCSS roof buildings, achieving accurate extraction is challenging due to the complex background in remote sensing images and the extensive scale range of CCSS roof buildings. This research introduces the deformation-aware feature enhancement and alignment network (DFEANet) to address these challenges. DFEANet adaptively adjusts the receptive field to effectively separate the foreground and background facilitated by the deformation-aware feature enhancement module (DFEM). Additionally, feature alignment and gated fusion module (FAGM) is proposed to refine boundaries and preserve structural details, which can ameliorate the misalignment between adjacent features and suppress redundant information during the fusion process. Experimental results on remote sensing images along the Beijing–Zhangjiakou high-speed railway demonstrate the effectiveness of DFEANet. Ablation studies further underscore the enhancement in extraction accuracy due to the proposed modules. Overall, the DFEANet was verified as capable of assisting in the external environment security of high-speed rails.
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While high-resolution remote sensing images offer an efficient approach to identify CCSS roof buildings, achieving accurate extraction is challenging due to the complex background in remote sensing images and the extensive scale range of CCSS roof buildings. This research introduces the deformation-aware feature enhancement and alignment network (DFEANet) to address these challenges. DFEANet adaptively adjusts the receptive field to effectively separate the foreground and background facilitated by the deformation-aware feature enhancement module (DFEM). Additionally, feature alignment and gated fusion module (FAGM) is proposed to refine boundaries and preserve structural details, which can ameliorate the misalignment between adjacent features and suppress redundant information during the fusion process. Experimental results on remote sensing images along the Beijing–Zhangjiakou high-speed railway demonstrate the effectiveness of DFEANet. Ablation studies further underscore the enhancement in extraction accuracy due to the proposed modules. Overall, the DFEANet was verified as capable of assisting in the external environment security of high-speed rails.</abstract><cop>Basel</cop><pub>MDPI AG</pub><doi>10.3390/rs15163933</doi><oa>free_for_read</oa></addata></record>
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ispartof Remote sensing (Basel, Switzerland), 2023-08, Vol.15 (16), p.3933
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subjects Ablation
Accuracy
Alignment
Building construction
Buildings
Color
color-coated steel sheet roof buildings
Deep learning
Deformation
Deformation effects
deformation-aware
gating mechanism
High resolution
High speed rail
High speed trains
high-speed rail security
Image resolution
Metal sheets
Misalignment
Modules
Passenger rail services
Performance evaluation
Receptive field
Remote sensing
remote sensing image
Roofing
Security
Semantics
Sheet-steel
Steel
Teaching methods
Unmanned aerial vehicles
title Color-Coated Steel Sheet Roof Building Extraction from External Environment of High-Speed Rail Based on High-Resolution Remote Sensing Images
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