QE-WNet: A Quadratic Encoding-decoding W-shape Network for Road Segmentation based from Optical Remote Sensing Imagery

With advancements in imaging technology, high-resolution remote sensing images are now readily available for applications such as urban planning, resource assessment, and land cover analysis. Roads are a crucial element of infrastructure, and extracting road information from high-resolution remote sensing images is vital for tasks like urban planning and mapping. However, existing road extraction techniques, which rely on traditional encoder-decoder architectures, often struggle to accurately delineate road boundaries and surfaces. As a result, these methods tend to produce subpar outcomes and are challenging to implement in practical systems. To address this issue, we introduce a novel quadratic encoding-decoding W-shaped network, referred to as QE-WNet. This approach recognizes the differing characteristics of road bodies and boundaries—where road boundaries are more stable in semantic representation and road bodies are less so. In the first stage of encoding and decoding, we focus on modeling road boundaries, while the second stage emphasizes road bodies, leveraging the more stable secondary encoding-decoding information. This separation enhances the accuracy of road extraction. We conduct comparative experiments using several established methods on the Deepglobe dataset, and the results demonstrate the effectiveness of our proposed method.

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Publication Details

Published
2024-11-22
DOI
https://doi.org/10.1109/icsidp62679.2024.10869289
Primary Topic
Automated Road and Building Extraction
Type
article
Field-Weighted Citation Impact
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article

QE-WNet: A Quadratic Encoding-decoding W-shape Network for Road Segmentation based from Optical Remote Sensing Imagery

Yin Zhuang, Jianlin Xie, Shilong Fan, Zhibao Su
Automated Road and Building Extraction
article

QE-WNet: A Quadratic Encoding-decoding W-shape Network for Road Segmentation based from Optical Remote Sensing Imagery

Yin Zhuang, Jianlin Xie, Shilong Fan, Zhibao Su
article en

Abstract

With advancements in imaging technology, high-resolution remote sensing images are now readily available for applications such as urban planning, resource assessment, and land cover analysis. Roads are a crucial element of infrastructure, and extracting road information from high-resolution remote sensing images is vital for tasks like urban planning and mapping. However, existing road extraction techniques, which rely on traditional encoder-decoder architectures, often struggle to accurately delineate road boundaries and surfaces. As a result, these methods tend to produce subpar outcomes and are challenging to implement in practical systems. To address this issue, we introduce a novel quadratic encoding-decoding W-shaped network, referred to as QE-WNet. This approach recognizes the differing characteristics of road bodies and boundaries—where road boundaries are more stable in semantic representation and road bodies are less so. In the first stage of encoding and decoding, we focus on modeling road boundaries, while the second stage emphasizes road bodies, leveraging the more stable secondary encoding-decoding information. This separation enhances the accuracy of road extraction. We conduct comparative experiments using several established methods on the Deepglobe dataset, and the results demonstrate the effectiveness of our proposed method.

Beijing Institute of Technology (CN), Beijing Academy of Artificial Intelligence (CN)
National Science Foundation
Sustainable cities and communities
Openalex Percentile: Top 64%
Automated Road and Building Extraction
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