Imagine having a super-powered digital twin of the Earth that can simulate volcanic eruptions or earthquakes in seconds rather than days. This work optimizes complex math codes so they can run on the world's fastest computers, making predictions much faster and more accurate. It's like upgrading from a handheld calculator to a supercomputer to predict exactly where a tsunami might hit.
Current geohazard models are often too slow or too low-resolution to provide actionable warnings during emergencies. This creates a gap in the ability to mitigate financial and human loss from volcanoes, earthquakes, and tsunamis.
Optimized high-performance computing codes and 9 Pilot Demonstrators, including 3D volcanic explosion and seismic hazard models.
If you are a reinsurance firm dealing with unpredictable volcanic or seismic risks — this project developed 15 Simulation Cases that provide high-end data inversion and uncertainty quantification. This allows for more precise physics-based probabilistic hazard assessments to price premiums accurately.
If you are a consultancy dealing with urban planning in geohazard zones — this project developed demonstrators on extreme-scale modeling of seismic hazards. This helps in designing buildings that can withstand specific, high-resolution simulated earthquake scenarios.
If you are a public agency dealing with the need for immediate evacuation orders — this project developed urgent computing capabilities for faster-than-real-time tsunami simulations. This reduces the time between a geohazard event and the delivery of life-saving warnings.
Based on available project data, no specific pricing or cost structures are mentioned; the project focuses on optimizing codes for EuroHPC systems.
Yes, the project specifically targets exascale infrastructures and optimizes 11 flagship community codes for performance portability across EuroHPC tier-0/tier-1 systems.
Based on available project data, the project focuses on 'community flagship codes' and 'EOSC-enabled datasets,' suggesting an open-science or shared-access model, though specific licenses are not listed.
The project develops workflows for urgent computing and early warning forecasts, including recommendations for emergency access modes in supercomputing systems.
The project period runs from 2023-01-01 to 2026-12-31, indicating that final deliverables and optimized codes will be available by the end of 2026.
The consortium is heavily research-driven, consisting of 19 partners across 8 countries. It is dominated by research institutes (9) and universities (7), with a modest industrial presence of 2 partners (11% industry ratio), including one SME. This structure suggests the output is primarily high-end technical software and scientific data rather than a commercial off-the-shelf product.
Contact AGENCIA ESTATAL CONSEJO SUPERIOR DE INVESTIGACIONES CIENTIFICAS in Spain
Contact us to find the specific optimized code for your geohazard risk profile.
