2024 Climate Risk Landscape Report
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AI & Environment Resource HubFaubel et al. · 2024-12-01
Machine learning enhances real-time and future climate monitoring in historic buildings, aiding preservation efforts amid climate change.
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Faubel et al.. 2024-12-01. Comparative Analysis of Artificial Intelligence Models for Real-Time and Future Forecasting of Environmental Conditions: A Wood-Frame Historic Building Case Study. https://www.sciencedirect.com/science/article/pii/S2352710224030420?via%3Dihub (AI & Environment Resource Hub; record paper-009; collection snapshot 2026-10-04).
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Source sheet: Scientific Paper · Row 13 · Original ID: paper-009.
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Shared topics: Climate and greenhouse gases; Weather, hazards, and adaptation
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Shared topics: Climate and greenhouse gases; Weather, hazards, and adaptation
Self-supervised learning enhances 3D cloud reconstruction, improving climate predictions by reducing uncertainties in climate models.
Shared topics: Climate and greenhouse gases; Weather, hazards, and adaptation
Aurora is a large-scale AI foundation model that significantly outperforms traditional forecasting systems across multiple Earth system domains, like air quality and cyclone tracking, while using far less computational power, marking a major advancement in accessible, efficient environmental prediction.
Shared topics: Climate and greenhouse gases; Weather, hazards, and adaptation
This study showcases a machine learning hackathon in France where a CNN-based model accurately predicted flood risk evolution using geospatial and climate data, even without streamflow input, emphasizing trustworthy AI in data-scarce regions.