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Dual-Stream Difference Modeling with Deep-Guided Multiscale Fusion for Mangrove Change Detection
Xin Wang1,2, Shuai Tang1, Qin Qin3
1School of Computer Science and Information Security, Guilin University of Electronic Technology, Guilin 541004, China.
Sensors (Basel, Switzerland)
|March 14, 2026
Summary
This study introduces DSDGMNet for accurate mangrove change detection, overcoming challenges like tidal effects. The new method improves detection accuracy in complex coastal environments.
Area of Science:
- Environmental Science
- Remote Sensing
- Coastal Ecology
Background:
- Accurate mangrove change detection is crucial for coastal ecosystem monitoring.
- Tidal disturbances and unstable land-water boundaries pose significant challenges for existing methods.
- Deep learning models struggle to differentiate true changes from tide-induced spectral variations.
Purpose of the Study:
- To develop a novel deep learning model for accurate mangrove change detection.
- To address the limitations of existing methods in handling tidal interferences and boundary complexities.
- To improve the balance between semantic consistency and boundary accuracy in change detection.
Main Methods:
- Proposed DSDGMNet (Dual-Stream Difference Modeling and Deep-Guided Multiscale Fusion).
- Dual-stream difference-driven strategy to reduce tidal interference and enhance sensitivity to structural changes.
- Deep-guided multiscale fusion module for integrating global context with fine boundary details.
Main Results:
- DSDGMNet achieved an F1-score of 71.36% on the GBCNR dataset, outperforming SNUNet (68.87%) and ChangeFormer (66.39%).
- On the WHU-CD dataset, DSDGMNet achieved an F1-score of 91.38%, surpassing DDLNet (89.85%) and ChangeFormer (88.82%).
- Demonstrated superior performance in mangrove change detection within complex intertidal zones.
Conclusions:
- DSDGMNet effectively addresses the challenges of mangrove change detection in intertidal environments.
- The proposed method shows significant improvements over existing deep learning approaches.
- Highlights the potential for enhanced coastal ecosystem monitoring through advanced remote sensing techniques.
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