SciTransfer
Organization

INSTITUTET FOR RYMDFYSIK

Swedish space physics institute specializing in geospace radiation prediction, plasma shock physics, and space instrumentation from its Arctic base in Kiruna.

Research institutespaceSE
H2020 projects
4
As coordinator
0
Total EC funding
€723K
Unique partners
91
What they do

Their core work

The Swedish Institute of Space Physics (IRF) studies the physics of space plasmas, the Sun-Earth connection, and planetary environments from its base in Kiruna, Sweden — one of the world's premier locations for aurora and geospace observations. Their work spans predicting dangerous radiation in near-Earth space, understanding how shock waves accelerate particles in the solar wind, and building instruments for planetary missions. IRF contributes measurement expertise, data analysis, and space-grade instrumentation to large European research infrastructure consortia.

Core expertise

What they specialise in

Space weather and geospace radiation predictionprimary
1 project

PROGRESS focused specifically on predicting the geospace radiation environment and solar wind parameters.

Collisionless shock physics and particle accelerationprimary
1 project

SHARP studied shock structure, particle acceleration, and wave instabilities in space plasmas.

Planetary science and solar-interplanetary physicssecondary
1 project

EPN-2024-RI involved solar/interplanetary physics and planetary systems sciences within the Europlanet infrastructure.

Space instrumentation and detector developmentsecondary
1 project

EPN-2024-RI keywords include instrumentation, telescopes, and detectors and techniques.

Atmospheric dynamics monitoring infrastructuresecondary
1 project

ARISE2 contributed to building Europe's atmospheric dynamics research infrastructure.

Evolution & trajectory

How they've shifted over time

Early focus
Space weather and atmospheric monitoring
Recent focus
Plasma shock physics and planetary science

In the earlier period (2015–2018), IRF focused on applied space weather — predicting geospace radiation (PROGRESS) — and contributed to atmospheric monitoring infrastructure (ARISE2). From 2020 onward, their work shifted toward fundamental plasma physics (SHARP on collisionless shocks) and broader planetary science infrastructure (EPN-2024-RI). This suggests a move from near-Earth applied research toward deeper fundamental physics and pan-European research infrastructure participation.

IRF is deepening its fundamental plasma physics work while maintaining strong involvement in European-scale research infrastructure networks — expect continued contributions to planetary missions and heliophysics.

Collaboration profile

How they like to work

Role: specialist_contributorReach: Global34 countries collaborated

IRF participates exclusively as a partner, never leading H2020 consortia — consistent with a specialist contributor role within large collaborative projects. With 91 unique partners across 34 countries from just 4 projects, they operate in very large, internationally diverse consortia (averaging ~23 partners per project). This broad network indicates IRF is a well-connected, trusted specialist that large infrastructure and research projects actively seek out for their measurement and analysis capabilities.

Despite only 4 projects, IRF has collaborated with 91 unique partners across 34 countries — a remarkably wide network driven by participation in large pan-European research infrastructure projects. Their reach spans well beyond Scandinavia into a truly pan-European and likely global network.

Why partner with them

What sets them apart

IRF's location in Kiruna — inside the Arctic Circle and directly beneath the auroral zone — gives it a natural geographic advantage for geospace and atmospheric measurements that few institutes can match. They combine hands-on instrument building with deep theoretical expertise in space plasma physics, making them a dual-capability partner. For consortium builders, IRF brings both the hardware (detectors, instruments) and the science (data analysis, modeling) in a single package.

Notable projects

Highlights from their portfolio

  • PROGRESS
    Largest single grant (EUR 322,440) and directly addresses the practical problem of predicting hazardous space radiation affecting satellites and astronauts.
  • SHARP
    Most recent substantial project (EUR 260,411) focused on fundamental shock physics — signals IRF's current research frontier in particle acceleration mechanisms.
Cross-sector capabilities
environment — atmospheric dynamics monitoring and climate-related upper atmosphere researchsecurity — space weather prediction for satellite and infrastructure protectiontransport — radiation risk assessment for aviation and space traveldigital — very large dataset archiving, handling, and analysis
Analysis note: Profile based on only 4 projects with limited keyword data in the earlier period. IRF is a well-established national research institute (founded 1957) whose full capabilities likely extend well beyond what these 4 H2020 participations reveal — they are heavily involved in ESA and national space programs not captured here.