CLEAR-EO
Next-generation Earth Observation for urban, agricultural, and environmental resilience
CLEAR-EO (Climate Change, Extreme Weather And Air Quality Anomalies Resilience Through Novel Earth Observation Advanced Data Analytics) is a project funded by Horizon Europe that develops an innovative geospatial analysis and notification system. It is based on next-generation satellite data (MTG, Sentinel 4/5, EPS-SG) and European cloud infrastructures (European Weather Cloud). The goal is to create a Virtual Observatory capable of triggering personalized alerts and providing advanced data and models for three key areas:
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Management of flash floods in urban areas;
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Climate adaptation in agriculture;
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Air quality forecasting.
LINKS for EU
Partners: Politecnico di Torino, ECMWF, Neuropubblic AE, DMI, ARIA Technologies, Université Paris XII, Sistema GmbH, Bye Bente
A Virtual Observatory based on unified data
CLEAR-EO creates an interconnected digital system that leverages Earth observation data and European clouds to provide:
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Targeted and timely geospatial notifications;
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Dynamic and predictive scenarios;
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Tools to support operational, political, and strategic decisions.
The system architecture is based on an advanced integration of satellite observations, forecasting models, in situ data, and artificial intelligence techniques.
A scalable system for extreme events and climate adaptation
The project aims to develop an operational prototype of the Virtual Observatory, which can:
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Generate high-precision urban flood alerts;
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Support resilient agricultural practices through early warning and climate anomaly detection;
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Provide detailed air quality forecasts at an urban scale.
CLEAR-EO also promotes the reinforcement of Copernicus services and contributes to the objectives of the European Green Deal.
Advanced satellite data, dynamic modeling, and AI CLEAR-EO strengthens the link between environmental observation, artificial intelligence, and European operational services in response to the climate crisis. Key distinctive elements of the project include:
Flood Warning System
based on high-resolution models and satellite observations of clouds, lightning, and convection to outline realistic urban impact scenarios;
Resilient Agriculture
combined use of reanalysis, Earth Observation, and in situ data for an integrated and operational analysis at a territorial scale;
Air Quality Forecasts
based on an innovative synergy between atmospheric dispersion models and machine learning to accurately simulate the distribution and fallout of pollutants.