A Conditionally Parameterized Feature Fusion U-Net for Building Change Detection

The semantic richness of remote sensing images often presents challenges in building detection, such as edge blurring, loss of detail, and low resolution. To address these issues and improve boundary precision, this paper proposes CCCUnet, a hybrid architecture developed for enhanced building extraction. CCCUnet integrates CondConv, Coord Attention, and a CGAFusion module to overcome the limitations of traditional U-Net-based methods. Additionally, the NLLLoss function is utilized in classification tasks to optimize model parameters during training. CondConv replaces standard convolution operations in the U-Net encoder, boosting model capacity and performance in building change detection while ensuring efficient inference. Coord Attention enhances the detection of complex contours in small buildings by utilizing its attention mechanism. Furthermore, the CGAFusion module combines channel and spatial attention in the skip connection structure, capturing both spatial and channel-wise correlations. Experimental results demonstrate that CCCUnet achieves high accuracy in building change detection, with improved edge refinement and the better detection of small building contours. Thus, CCCUnet serves as a valuable tool for precise building extraction from remote sensing images, with broad applications in urban planning, land use, and disaster monitoring.

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Publication Details

Journal
Sustainability
Published
2024-10-24
DOI
https://doi.org/10.3390/su16219232
Citations
6
Primary Topic
Video Surveillance and Tracking Methods
Type
article
Field-Weighted Citation Impact
1.50
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article

A Conditionally Parameterized Feature Fusion U-Net for Building Change Detection

Qinyi Chen, Chao Ren, Lei Zou, Haoming Bai et al.
6 citations
Sustainability
Video Surveillance and Tracking Methods
1.50
article

A Conditionally Parameterized Feature Fusion U-Net for Building Change Detection

Qinyi Chen, Chao Ren, Lei Zou, Haoming Bai, Zhiyong Huang, Yao Gu
article en
6 citations

Abstract

The semantic richness of remote sensing images often presents challenges in building detection, such as edge blurring, loss of detail, and low resolution. To address these issues and improve boundary precision, this paper proposes CCCUnet, a hybrid architecture developed for enhanced building extraction. CCCUnet integrates CondConv, Coord Attention, and a CGAFusion module to overcome the limitations of traditional U-Net-based methods. Additionally, the NLLLoss function is utilized in classification tasks to optimize model parameters during training. CondConv replaces standard convolution operations in the U-Net encoder, boosting model capacity and performance in building change detection while ensuring efficient inference. Coord Attention enhances the detection of complex contours in small buildings by utilizing its attention mechanism. Furthermore, the CGAFusion module combines channel and spatial attention in the skip connection structure, capturing both spatial and channel-wise correlations. Experimental results demonstrate that CCCUnet achieves high accuracy in building change detection, with improved edge refinement and the better detection of small building contours. Thus, CCCUnet serves as a valuable tool for precise building extraction from remote sensing images, with broad applications in urban planning, land use, and disaster monitoring.

SustainabilityVol. 16(21)
Guilin University of Technology (CN)
Sustainable cities and communities
Openalex Percentile: Top 16%
Video Surveillance and Tracking Methods
1.50
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