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📄 Abstract
Abstract: Earth observation foundation models have shown strong generalization across
multiple Earth observation tasks, but their robustness under real-world
perturbations remains underexplored. To bridge this gap, we introduce REOBench,
the first comprehensive benchmark for evaluating the robustness of Earth
observation foundation models across six tasks and twelve types of image
corruptions, including both appearance-based and geometric perturbations. To
ensure realistic and fine-grained evaluation, our benchmark focuses on
high-resolution optical remote sensing images, which are widely used in
critical applications such as urban planning and disaster response. We conduct
a systematic evaluation of a broad range of models trained using masked image
modeling, contrastive learning, and vision-language pre-training paradigms. Our
results reveal that (1) existing Earth observation foundation models experience
significant performance degradation when exposed to input corruptions. (2) The
severity of degradation varies across tasks, model architectures, backbone
sizes, and types of corruption, with performance drop varying from less than 1%
to over 20%. (3) Vision-language models show enhanced robustness, particularly
in multimodal tasks. REOBench underscores the vulnerability of current Earth
observation foundation models to real-world corruptions and provides actionable
insights for developing more robust and reliable models. Code and data are
publicly available at https://github.com/lx709/REOBench.
Authors (10)
Xiang Li
Yong Tao
Siyuan Zhang
Siwei Liu
Zhitong Xiong
Chunbo Luo
+4 more
Key Contributions
REOBench is the first comprehensive benchmark designed to evaluate the robustness of Earth Observation (EO) foundation models. It covers six tasks and twelve types of image corruptions (appearance and geometric) on high-resolution remote sensing images, revealing significant performance degradation in existing models and highlighting the need for improved robustness.
Business Value
Enables more reliable and trustworthy deployment of AI in critical Earth observation applications, leading to better decision-making in areas like disaster management, urban planning, and climate change monitoring.