2026· IEEE Journal of Selected Topics in Applied Earth Observations and Remote Sensing· Vol 19, pp. 23432-23444· 0 citations· 62 references
TL;DR
This work designs an adversarial teacher-student framework enhanced with an Auxiliary Masked Autoencoder to learn domain-invariant representations by randomly masking feature regions and enforcing cross-domain reconstruction and introduces an Iterative Consistency Pseudolabel Filter that leverages a memory of historical predictions.
Abstract
Domain shifts caused by varying remote sensing sensors severely degrade the model performance of object detection when deployed in target domains. While unsupervised domain adaptation provides a promising solution, existing methods tend to suffer from pseudolabel noise accumulation, leading to unstable and unreliable detection in complex remote sensing scenarios. To address both domain discrepancy and pseudolabel degradation, we propose ICPNet, an Iterative Consistency Pseudo-Labeling Network that integrates self-supervised learning with pseudolabel refinement to enhance domain robustness and label reliability. Specifically, we design an adversarial teacher-student framework enhanced with an Auxiliary Masked Autoencoder to learn domain-invariant representations by randomly masking feature regions and enforcing cross-domain reconstruction. In addition, we introduce an Iterative Consistency Pseudolabel Filter (ICPF) that leverages a memory of historical predictions. By filtering labels based on their stability across multiple training iterations, the ICPF generates a high-quality and stable supervisory information. A confidence decay mechanism further enhances stability by reducing the influence of outdated predictions. Extensive experiments on diverse remote sensing datasets demonstrate that our ICPNet outperforms state-of-the-art unsupervised domain adaptation (UDA) approaches in cross-domain object detection.
Remote sensing change detection (RSCD) aims to identify and localize changes in the same geographical region using bi-temporal or multitemporal images. However, significant feature distribution shifts commonly exist not only between training and real-world data but also between paired images acquired at different times...
Jia-Hang Liu, Zitong Qi, Mao-yin Guo et al.· IEEE Transactions on Geoscie...· 0 citations
MAIG-Net combines a target-label-free ground-sampling-distance rule, an intermediate domain constructed by Fourier domain adaptation (FDA) that transfers only low-frequency target appearance onto labeled source images while preserving the complete source phase and road labels, and Domain-Invariant Feature Alignment mod...
Chengqi Bao, Guang-Wu Chen, Wenbo Jin et al.· Italian National Conference...· 0 citations
A test-time adaptation framework that requires no target-domain supervision that introduces two key innovations: a learnable dynamic augmentation module for better capturing target-domain characteristics, and a self-supervised adaptation strategy for leveraging unlabeled target-domain images by enforcing structural pri...
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Unsupervised Domain Adaptation (UDA) for object detection remains challenging under adverse weather due to significant distribution shifts. While recent Vision Foundation Model (VFM) based methods show promise, they often encounter limitations in extreme domain gaps and pseudo-label noise. This paper proposes two enhan...
T. Doan, D. C. Bui, Khanh-Duy Nguyen et al.· International Conference on...· 0 citations
Experimental results show that the proposed SFDA object detection framework for the YOLO family of single-stage detectors consistently outperforms the baseline on multiple cross-domain detection tasks, demonstrating its effectiveness and good generalization ability under the source-free setting.
BSCNet is presented, a semi-supervised framework for binary building change detection that jointly models boundary-sensitive differences and scene-dependent scale preferences and progressive ablations confirm complementary gains from the boundary, scale, and consistency components.
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