Improved lightweight water body recognition model using Mobile-Former network

ABSTRACT To address high computational costs and prolonged training in conventional water body recognition models (e.g., Swin Transformer, DeepLabV3+), we propose a lightweight network replacing DeepLabV3 + 's backbone with Mobile-Former. Mobile-Former achieves bidirectional fusion of local and global features via parallel MobileNetV3 and Transformer blocks. The model extracts a shallow feature and two deep features, with one deep feature processed by dilated convolution before fusion with the shallow feature and the remaining deep feature. This design reduces FLOPs from 219,300.75 to 3,727.14 M and parameters from 351.56 to 12.21 M. Experimental results show average IoU scores of 67.98, 69.86, and 91.81% on three datasets. The lightweight architecture enables real-time processing and suits resource-constrained environments. Validation on 2020 Chaohu flood data demonstrates 98.79% accuracy in flood inundation extraction, highlighting its practical efficacy for disaster response applications.

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Publication Details

Journal
Hydrology research
Published
2025-08-28
DOI
https://doi.org/10.2166/nh.2025.061
Primary Topic
Flood Risk Assessment and Management
Type
article
Field-Weighted Citation Impact
0.00

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article

Improved lightweight water body recognition model using Mobile-Former network

Guang Shi, Zhenguo Chen, Riyu Lu
Hydrology research
Flood Risk Assessment and Management
article

Improved lightweight water body recognition model using Mobile-Former network

Guang Shi, Zhenguo Chen, Riyu Lu
article en

Abstract

ABSTRACT To address high computational costs and prolonged training in conventional water body recognition models (e.g., Swin Transformer, DeepLabV3+), we propose a lightweight network replacing DeepLabV3 + 's backbone with Mobile-Former. Mobile-Former achieves bidirectional fusion of local and global features via parallel MobileNetV3 and Transformer blocks. The model extracts a shallow feature and two deep features, with one deep feature processed by dilated convolution before fusion with the shallow feature and the remaining deep feature. This design reduces FLOPs from 219,300.75 to 3,727.14 M and parameters from 351.56 to 12.21 M. Experimental results show average IoU scores of 67.98, 69.86, and 91.81% on three datasets. The lightweight architecture enables real-time processing and suits resource-constrained environments. Validation on 2020 Chaohu flood data demonstrates 98.79% accuracy in flood inundation extraction, highlighting its practical efficacy for disaster response applications.

Hydrology research
North China Institute of Science and Technology (CN)
Hebei Province Graduate Innovation Funding Project
Openalex Percentile: Top 78%
Flood Risk Assessment and Management
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Improved lightweight water body recognition model using Mobile-Former network — Guang Shi, Zhenguo Chen, et al. · Hydrology research (2025) | TGRS Research Map | TGRS