ClimSat – A diffusion autoencoder model for climate-conditional satellite image editing

Climatic conditions have a strong impact on the Earth’s surface, especially in terms of how different land cover classes appear and the way they are distributed. Satellite images are valuable data for studying these effects. However, disentangling the specific influence of climate remains a complex challenge. This paper proposes ClimSat, an image editing model designed to realistically simulate prescribed climate conditions on satellite imagery. The proposed ClimSat model is constructed as a diffusion autoencoder, and it incorporates contextual information through multi-conditional batch normalization and classifier-free guidance. The technical capabilities of ClimSat were first validated by demonstrating its ability to generate high-quality images which remain faithful to the prescribed conditions. The experimental results further show that ClimSat outperforms other models in terms of both criteria. ClimSat’s practical utility is demonstrated in two downstream applications, i.e., data augmentation for land cover classification, where training on ClimSat-augmented datasets improves classifier generalizability beyond regionally limited datasets, and climate change visualization, where the effects of forecast climate change are simulated under two socioeconomic pathways for protected regions in Finland and Italy.

Authors

Publication Details

Journal
Science of Remote Sensing
Published
2025-05-29
DOI
https://doi.org/10.1016/j.srs.2025.100235
Primary Topic
Advanced Image Fusion Techniques
Type
article
Field-Weighted Citation Impact
0.00

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article

ClimSat – A diffusion autoencoder model for climate-conditional satellite image editing

Jüergen Gall, Ribana Roscher, Johannes Leonhardt
Science of Remote Sensing
Advanced Image Fusion Techniques
article

ClimSat – A diffusion autoencoder model for climate-conditional satellite image editing

Jüergen Gall, Ribana Roscher, Johannes Leonhardt
article en

Abstract

Climatic conditions have a strong impact on the Earth’s surface, especially in terms of how different land cover classes appear and the way they are distributed. Satellite images are valuable data for studying these effects. However, disentangling the specific influence of climate remains a complex challenge. This paper proposes ClimSat, an image editing model designed to realistically simulate prescribed climate conditions on satellite imagery. The proposed ClimSat model is constructed as a diffusion autoencoder, and it incorporates contextual information through multi-conditional batch normalization and classifier-free guidance. The technical capabilities of ClimSat were first validated by demonstrating its ability to generate high-quality images which remain faithful to the prescribed conditions. The experimental results further show that ClimSat outperforms other models in terms of both criteria. ClimSat’s practical utility is demonstrated in two downstream applications, i.e., data augmentation for land cover classification, where training on ClimSat-augmented datasets improves classifier generalizability beyond regionally limited datasets, and climate change visualization, where the effects of forecast climate change are simulated under two socioeconomic pathways for protected regions in Finland and Italy.

Science of Remote SensingVol. 11
Deutsche Forschungsgemeinschaft, Bundesministerium für Bildung und Forschung
Climate action
Openalex Percentile: Top 83%
Advanced Image Fusion Techniques
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