Remote sensing water body extraction method based on weak information dynamic perception

As a core task in remote sensing image analysis, water body extraction is vital for ecological monitoring, flood early warning, and water resource management. Recent AI-based remote sensing methods for water body characterization have advanced significantly but struggle with weak-information scenarios (multi-scale small water bodies, indistinct boundaries, limited representation). This paper proposes a Data-driven Weak Information Dynamic Perception Network (DWIDP-Net) for high-precision multi-scale water body extraction. It adopts a data-driven, memory-coupled multi-scale framework, integrating Transformer’s global semantic modelling and MobileNet-v2’s lightweight local extraction to adapt to complex water morphologies. Two key modules are designed: Multi-Modal Feature Alignment Module (MAM, optimizing cross-scale consistency via mask-guided residual reconstruction) and Weak Information-Guided Feature Enhancement Method (WIGFEM, addressing feature degradation with gradient-sensitive masks and cascaded fusion). Experiments on WaterFormer and LoveDA_Water datasets show DWIDP-Net achieves IoU (96.16%/78.27%) and Recall (97.45%/86.23%), outperforming mainstream models by 1.06%–20.43% (Recall) and 1.12%–15.81% (IoU), providing technical support for flood monitoring and water management.

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Publication Details

Journal
Remote Sensing Letters
Published
2026-08-26
DOI
https://doi.org/10.1080/2150704x.2026.2720614
Primary Topic
Advanced SAR Imaging Techniques
Type
article
Field-Weighted Citation Impact
0.00

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article

Remote sensing water body extraction method based on weak information dynamic perception

Zuoji Huang, Rui Zhang, Chunlin Wang, Ao He et al.
Remote Sensing Letters
Advanced SAR Imaging Techniques
article

Remote sensing water body extraction method based on weak information dynamic perception

Zuoji Huang, Rui Zhang, Chunlin Wang, Ao He, Dandan Dong, Jinyan Sun, Xi Zhang, Biao Wang
article en

Abstract

As a core task in remote sensing image analysis, water body extraction is vital for ecological monitoring, flood early warning, and water resource management. Recent AI-based remote sensing methods for water body characterization have advanced significantly but struggle with weak-information scenarios (multi-scale small water bodies, indistinct boundaries, limited representation). This paper proposes a Data-driven Weak Information Dynamic Perception Network (DWIDP-Net) for high-precision multi-scale water body extraction. It adopts a data-driven, memory-coupled multi-scale framework, integrating Transformer’s global semantic modelling and MobileNet-v2’s lightweight local extraction to adapt to complex water morphologies. Two key modules are designed: Multi-Modal Feature Alignment Module (MAM, optimizing cross-scale consistency via mask-guided residual reconstruction) and Weak Information-Guided Feature Enhancement Method (WIGFEM, addressing feature degradation with gradient-sensitive masks and cascaded fusion). Experiments on WaterFormer and LoveDA_Water datasets show DWIDP-Net achieves IoU (96.16%/78.27%) and Recall (97.45%/86.23%), outperforming mainstream models by 1.06%–20.43% (Recall) and 1.12%–15.81% (IoU), providing technical support for flood monitoring and water management.

Remote Sensing LettersVol. 17(12)
Anhui University (CN), Anhui Water Conservancy and Hydropower Survey and Design Institute (CN), Anhui and Huaihe River Institute of Hydraulic Research (CN)
Natural Science Foundation of Anhui Province
Clean water and sanitation
Openalex Percentile: Top 6%
Advanced SAR Imaging Techniques
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