EO4FLOOD
Earth observation data for
Advancing Flood Forecasting

PROJECT DESCRIPTION
Floods rank among the most destructive natural disasters, causing significant harm to human health, the environment, cultural heritage, and economies. In Europe alone, floods have led to approximately 4,000 fatalities and $274 billion in economic losses over the past 50 years, with even more severe impacts in developing countries. As climate change accelerates the frequency and intensity of floods, there is an urgent need for innovative flood forecasting systems that can effectively reduce societal impacts.
The EO4FLOOD Project (Earth Observation data for Advancing Flood Forecasting) funded by ESA aims at demonstrating the maturity and effectiveness of cutting-edge satellite data in enhancing flood forecasting systems. The project focuses on leveraging advanced satellite technologies and algorithms to improve the accuracy and timeliness of existing hydrological and hydraulic models, resulting in more reliable and precise flood predictions.
EO4FLOOD is structured around three key pillars:
Development of an Advanced Open Earth Observation Dataset
Integration of the EO4FLOOD Dataset
Demonstration of EO Data and Models
The EO4FLOOD project is based on the use of the last frontiers in terms of advanced algorithms and satellite products to feed hydrological and hydraulic modelling to enhance flood forecasting systems and deliver a robust framework for predicting flood events and managing their impacts on society and the environment.
EO4FLOOD approach and testing river basins
EO4FLOOD will test the impact of EO through calibration, forcing data, initial condition and data assimilation in three rainfall-runoff models (Hype, GHM, MGB) and one AI model. The testing modelling framework will be implemented over selected areas within five specific basins (Torne, Negro, Congo, Niger and Brahmaputra) . The dataset of EO will be provided also in the bigger European basins like Po, Danube, Rhine and Ebro. To optimize the use of the available tools for flood forecasting, we will develop a hybrid approach that integrates the strengths of a physics-based approach and advanced AI techniques.
The insights derived from this research will not only refine current methodologies but also serve as a benchmark for future hydrological studies and applications aimed at mitigating flood impacts and enhancing water resource management strategies globally.

