Dual-Branch Seasonal Error Elimination Change Detection Framework Using Target Image Feature Fusion Generator

In change detection tasks, seasonal variations in spectral characteristics and surface cover can negatively impact performance when comparing image pairs from different seasons. Many existing change detection methods do not specifically address the performance degradation caused by seasonal errors. To tackle this issue, the Dual-Branch Seasonal Error Elimination Change Detection Framework using Target Image Feature Fusion Generator (DBSEE-CDF) is introduced. Specifically, the approach utilizes the Target Image Feature Fusion Generator (TIFFG), which incorporates spatial and channel attention mechanisms to extract features from target images and integrates them with deep features from input images using cross-attention. To avoid a severe loss of visual fidelity caused by the significant differences in texture and color features between snow-covered and snow-free images, as well as the different requirements for style transformation, different generators for snow-covered winter images and snow-free winter images are employed to produce intermediate images that eliminate seasonal errors before conducting change detection tasks. The experimental results demonstrate significant improvements in both quantitative and qualitative assessments of change detection tasks compared to directly performing change detection with various models, highlighting the effectiveness of the proposed DBSEE-CDF.

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Publication Details

Journal
Remote Sensing
Published
2025-02-03
DOI
https://doi.org/10.3390/rs17030523
Primary Topic
Remote-Sensing Image Classification
Type
article
Field-Weighted Citation Impact
0.00

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article

Dual-Branch Seasonal Error Elimination Change Detection Framework Using Target Image Feature Fusion Generator

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Remote-Sensing Image Classification
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Dual-Branch Seasonal Error Elimination Change Detection Framework Using Target Image Feature Fusion Generator

Zeju Wang, Hongming Zhu, Bowen Du, Xinyu Liu, Jipeng Zhang, Qin Liu
article en

Abstract

In change detection tasks, seasonal variations in spectral characteristics and surface cover can negatively impact performance when comparing image pairs from different seasons. Many existing change detection methods do not specifically address the performance degradation caused by seasonal errors. To tackle this issue, the Dual-Branch Seasonal Error Elimination Change Detection Framework using Target Image Feature Fusion Generator (DBSEE-CDF) is introduced. Specifically, the approach utilizes the Target Image Feature Fusion Generator (TIFFG), which incorporates spatial and channel attention mechanisms to extract features from target images and integrates them with deep features from input images using cross-attention. To avoid a severe loss of visual fidelity caused by the significant differences in texture and color features between snow-covered and snow-free images, as well as the different requirements for style transformation, different generators for snow-covered winter images and snow-free winter images are employed to produce intermediate images that eliminate seasonal errors before conducting change detection tasks. The experimental results demonstrate significant improvements in both quantitative and qualitative assessments of change detection tasks compared to directly performing change detection with various models, highlighting the effectiveness of the proposed DBSEE-CDF.

Remote SensingVol. 17(3)
Tongji University (CN)
National Natural Science Foundation of China, Science and Technology Commission of Shanghai Municipality
Climate action
Openalex Percentile: Top 98%
Remote-Sensing Image Classification
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