
With funding from the Federal Ministry of Research, Technology and Space (BMFTR), the new project SIBAF (Supraleitender Ionenbeschleuniger als BAsistechnologie für die Fusionsforschung) will establish a unique accelerator-based infrastructure for the rapid qualification of advanced materials for future fusion power plants. As part of the funding program “Basistechnologien für die Fusion – auf dem Weg zu einem Fusionskraftwerk” (Basic technologies for fusion – on the path to a fusion power…

Where do gold, platinum, and uranium come from? This question has fascinated astrophysicists and nuclear physicists for decades. A research team from Technische Universität Darmstadt has now taken an important step toward understanding the origin of heavy elements. Their findings, published in Physical Review Letters, demonstrate for the first time how modern ab initio calculations of atomic nuclei can significantly improve predictions of r-process nucleosynthesis, the mechanism responsible for…

To mark Christopher Street Day (CSD) in Darmstadt on 15 August 2026, the rainbow flag was once again raised on the GSI and FAIR campus this year as a symbol of diversity, acceptance, and visibility. The Management Board opened the event with a welcome address expressing solidarity with queer people and underscored the importance of an open and non-discriminatory work culture. For the first time, the employee network “Queer Ions” will officially represent the GSI/FAIR Research Center at the CSD…

With a new high-performance computing infrastructure, Fraunhofer IGD and GSI/FAIR are strengthening their collaboration in the fields of artificial intelligence and high-performance computing. The new GPU cluster combines Fraunhofer IGD’s AI expertise with the energy-efficient data center infrastructure of GSI/FAIR’s Green IT Cube and creates the technical foundation for training modern AI models for data-sovereign research and the secure handling of sensitive information.

First high-precision measurements of the fermium-255 nucleus validate modern nuclear models and advance the search for superheavy elementsFor the first time, researchers have determined the shape of the actinide nucleus of fermium‑255 and measured its structure with high precision and resolution. This breakthrough, published in Physical Review Letters, supports modern theoretical models and opens new possibilities for understanding the behavior of the heaviest atomic nuclei.

A consortium of 33 partners, including GSI/FAIR, aims to strengthen Germany’s innovative capacity and resilience in the field of microelectronics. The consortium includes universities, institutes of the Fraunhofer Society, the Helmholtz Association, and the Leibniz Association, as well as industry partners and associated partners. Together, they have now applied to establish a competence center for chip design. The call for proposals was issued in April of this year by the German Federal…
Focus on the Universe – GSI/FAIR's lecture series “Wissenschaft für Alle” in the second term of 2026

GSI/FAIR will continue its popular public lecture series “Wissenschaft für Alle” in a hybrid format in the second term of 2026. Interested parties can either attend the event in the lecture hall of GSI/FAIR following a registration or dial into the broadcast of the event via video conference using an internet-enabled device such as a laptop, cell phone or tablet. The program begins on Wednesday, August 19, 2026, with a lecture by Professor Hannah Elfner on the cosmic origin of matter.

Recently, the HITRAP accelerator has been disassembled and transported out of its experimental cave, in preparation for its future use as an interim injector for FAIR. This marks the first important milestone in the sub-project PARTIH, that will generate and provide ion beams in the Transfer Channel between the UNILAC and SIS18. Those beams will then be accelerated further in SIS-18 and will enable FAIR commissioning.

Using radioactive ion beams and in‑beam PET, researchers at GSI/FAIR, in collaboration with the Ludwig Maximillian Universität (LMU) Munich, are working on a new generation of highly precise, adaptive particle therapy. Because tumors and surrounding organs can shift or change shape during the course of treatment, radiotherapy plans often need to be adapted in real time to keep delivering the dose safely and effectively to the tumor. A new study within the ERC project „BARB – Biomedical…













