Core participant in ENSAR2, IDEAAL, STRONG-2020, JENNIFER/JENNIFER2, FCCIS, and EUROfusion — spanning nuclear structure, hadron physics, neutrino research, and accelerator design.
THE HENRYK NIEWODNICZANSKI INSTITUTE OF NUCLEAR PHYSICS, POLISH ACADEMY OF SCIENCES
Polish Academy nuclear physics institute contributing accelerator technology, proton therapy research, and biomedical physics across major European infrastructure projects.
Their core work
IFJ PAN is one of Poland's premier nuclear and particle physics research institutes, operating advanced accelerator and detector facilities in Kraków. They conduct fundamental research in quantum chromodynamics, hadron structure, neutrino physics, and nuclear science, while also applying their expertise in proton beam therapy, biomechanics, and radiation protection. The institute serves as a key Polish node in major European research infrastructures — from fusion energy (EUROfusion) to future circular colliders (FCCIS) — and actively engages the public through recurring Researchers' Night events across the Małopolska region.
What they specialise in
Contributed to accelerator and magnet infrastructure (AMICI), proton therapy facilities (INSPIRE), nuclear science applications (ENSAR2), future collider design (FCCIS), and fusion materials testing (DONES-PreP).
INSPIRE focused on proton beam therapy infrastructure including radiobiology and dosimetry; Phys2BioMed applied physical measurement tools like AFM and nanoindentation to cancer cell diagnostics.
Phys2BioMed (2019-2022) applied mechanical phenotyping and atomic force microscopy to develop early-diagnostic tools for cancer — a clear crossover from physics instrumentation to biomedical application.
Ran four consecutive European Researchers' Night events in Małopolska (Power2Nights, MalopolskaRN, Researchers4ECO, ECOResearchers4Earth) from 2014 to 2021, with growing emphasis on ecology and climate themes.
How they've shifted over time
In the early H2020 period (2014–2018), IFJ PAN focused on core nuclear physics infrastructure, fusion research, and general science promotion through public outreach events. From 2019 onward, two clear shifts emerged: first, a move into applied biomedical physics (Phys2BioMed's cancer cell biomechanics) and next-generation accelerator design (FCCIS, STRONG-2020); second, their public engagement events increasingly incorporated ecology, climate, and societal impact themes rather than pure science showcasing. This evolution suggests an institute deliberately broadening from fundamental physics toward medical applications and socially relevant research narratives.
IFJ PAN is increasingly bridging fundamental physics capabilities toward biomedical applications and future accelerator technologies, making them a strong partner for projects requiring precision measurement expertise applied to health or next-generation research infrastructure.
How they like to work
IFJ PAN exclusively operates as a participant or third party — they have never coordinated an H2020 project, which positions them as a reliable contributing partner rather than a project driver. With 349 unique consortium partners across 35 countries, they operate within very large international consortia (many of their projects are flagship infrastructure efforts with dozens of members). This means they are well-practiced at integrating into complex multi-partner structures and delivering specialized contributions without needing to lead.
IFJ PAN has collaborated with 349 unique partners across 35 countries, reflecting deep integration into Europe's nuclear and particle physics community. Their network is predominantly pan-European but extends globally through projects like JENNIFER (Japan-Europe neutrino research), giving them connections to major facilities in Asia as well.
What sets them apart
IFJ PAN brings a rare combination: a world-class nuclear and particle physics institute that also operates proton beam therapy infrastructure and has demonstrated capability in biomedical cell mechanics. For consortium builders, this means one partner can contribute to both fundamental physics work packages and translational medical physics tasks. Their consistent Researchers' Night track record also makes them a credible dissemination and public engagement partner for any project needing strong outreach in Central Europe.
Highlights from their portfolio
- IDEAALLargest single EC contribution to IFJ PAN (EUR 282,500), focused on developing the SPIRAL2 international nuclear physics facility — signals trusted role in major infrastructure development.
- Phys2BioMedRepresents a strategic pivot: applying nuclear physics measurement expertise (AFM, nanoindentation) to cancer cell biomechanics and early diagnostics — their most interdisciplinary project.
- FCCISParticipation in the Future Circular Collider study (EUR 139,375) positions IFJ PAN within the design phase of CERN's next flagship accelerator, one of the largest science projects ever proposed.