SciTransfer
Organization

VEDURSTOFA ISLANDS

Iceland's national geohazard authority specializing in volcano monitoring, earthquake forecasting, and real-time seismic early warning across European research networks.

National meteorological and geohazard authorityenvironmentISNo active H2020 projects
H2020 projects
9
As coordinator
2
Total EC funding
€2.4M
Unique partners
200
What they do

Their core work

The Icelandic Meteorological Office (IMO) is Iceland's national authority for monitoring earthquakes, volcanic eruptions, and atmospheric hazards. They operate volcano observatories and seismic networks, providing real-time hazard assessment and early warning services. Their research spans eruption forecasting, seismic tremor analysis, and flood monitoring — all grounded in Iceland's unique position as one of the most volcanically active regions on Earth. They also contribute to pan-European research infrastructures for solid earth science and earth observation.

Core expertise

What they specialise in

Volcanology and eruption monitoringprimary
3 projects

Coordinated EUROVOLC (European volcano observatory network) and TREMOR (eruption forecasting via tremor classification), and contributed to ChEESE for geohazard modelling.

Earthquake forecasting and early warningprimary
2 projects

Participated in RISE (operational earthquake forecasting and rapid impact assessment) and contributed seismic expertise to EPOS infrastructure.

Solid earth research infrastructureprimary
3 projects

Involved in both EPOS phases (Implementation and Sustainability) and coordinated EUROVOLC, all focused on building shared European geoscience infrastructure.

Atmospheric hazard monitoring for aviationsecondary
2 projects

Contributed to EUNADICS-AV (airborne disaster coordination for aviation) and ARISE2 (atmospheric dynamics infrastructure), drawing on experience from the 2010 Eyjafjallajökull eruption.

High-performance computing for geohazardsemerging
1 project

Contributed to ChEESE Centre of Excellence, applying exascale computing to solid earth simulations and geohazard services.

Evolution & trajectory

How they've shifted over time

Early focus
Geoscience research infrastructure
Recent focus
Operational hazard forecasting services

In the early H2020 period (2015–2018), IMO focused on building and joining foundational research infrastructures — volcano observatory networks, atmospheric monitoring, and the EPOS solid earth platform. From 2019 onward, the emphasis shifted toward operational applications: real-time earthquake forecasting (RISE), eruption prediction through tremor analysis (TREMOR), exascale geohazard computing (ChEESE), and earth observation services (e-shape). The trajectory is clear — from infrastructure building to delivering actionable hazard prediction and monitoring services.

IMO is moving from infrastructure participation toward real-time, service-oriented hazard prediction — expect them to seek projects combining monitoring data with operational decision-support tools.

Collaboration profile

How they like to work

Role: active_partnerReach: European37 countries collaborated

IMO primarily joins consortia as a specialist partner (7 of 9 projects), but has proven coordination capability, leading both EUROVOLC (their largest project at EUR 737K) and TREMOR. With 200 unique partners across 37 countries, they are well-connected and clearly comfortable in large European consortia. Their coordination of EUROVOLC — a network of volcano observatories — shows they can lead infrastructure-scale collaborations, not just contribute data.

IMO has collaborated with 200 unique partners across 37 countries, giving them one of the broadest networks for a national meteorological office. Their partnerships span geological surveys, universities, and research centres across nearly all of Europe, reflecting the pan-European nature of geohazard monitoring.

Why partner with them

What sets them apart

Iceland sits on the Mid-Atlantic Ridge, making IMO one of the few institutions in the world with continuous, direct experience monitoring both volcanic eruptions and seismic activity at a plate boundary. This gives them irreplaceable real-world data and operational expertise that simulation-only labs cannot match. For any consortium working on geohazards, eruption forecasting, or seismic early warning, IMO brings both the scientific depth and the lived operational reality of managing active geological threats.

Notable projects

Highlights from their portfolio

  • EUROVOLC
    Their largest project (EUR 737K) and a coordinator role — built a European network connecting volcano observatories with shared data access and trans-national research visits.
  • RISE
    Addresses operational earthquake forecasting and rapid impact assessment for European resilience — directly translates seismic science into civil protection tools.
  • ChEESE
    Centre of Excellence applying exascale computing to geohazards — positions IMO at the intersection of HPC and earth sciences, a growing frontier.
Cross-sector capabilities
Transport safety (volcanic ash and aviation hazard management)Civil protection and disaster risk reductionHigh-performance computing for earth sciencesResearch infrastructure governance and sustainability
Analysis note: Strong profile with 9 projects providing clear thematic coherence. Some early projects (ARISE2, EPOS IP, EUNADICS-AV) lack keyword data, so early-period analysis relies partly on project titles. The overall trajectory from infrastructure to operational services is well-supported by the data.