About our research
All research of the Master’s specialisation Particle and Astrophysics is comprised in the Institute for Mathematics, Astrophysics and Particle Physics (IMAPP). In addition to research in the individual disciplines, IMAPP also fosters research that connects them. This provides a unique research environment for curious students, where mathematics teams up with high-energy physics (on topics such as quantum gravity or noncommutative geometry) or high-energy physics with astrophysics (on topics such as astroparticle physics or cosmic rays).
On this page, you can read more about the relevant research institute(s) and departments in which our highly renowned research takes place.
Institute for Mathematics, Astrophysics and Particle Physics
IMAPP carries out fundamental research in mathematics, high-energy physics and astrophysics with special attention for interdisciplinary topics. The overarching research theme is the origin and evolution of the universe and its underlying mathematical structures. The combination of research topics of IMAPP is remarkable. There are mathematicians working on statistics of diseases, astrophysicists looking at collisions of black holes and physicists trying to complete the standard model of particle physics. Even though IMAPP covers different research fields, scientists are working closely together on interdisciplinary research topics. Examples of research at IMAPP include the investigation of the Higgs boson particle, the image of a black hole and gravitational waves.
Research at extremely small and extremely large scales both require very large infrastructure, that often exceeds university budgets. IMAPP is therefore involved in several large-scale national and international collaborations. Students are encouraged to participate in these research projects as well. Every year, students of this specialisation go to Geneva to take part in the CERN summer school. In addition, we organise trips to other facilities for students who want to perform specific experiments for their internship.
Large Hadron Collider (LHC), Switzerland
The Large Hadron collider is a circular particle accelerator, built by CERN. Radboud University is involved in the ATLAS experiment, which is aimed at collisions of protons of extraordinarily high energy. One of the major outcomes so far is the discovery of the Higgs boson.
Pierre Auger Cosmic Ray Observatory, Argentina
This observatory is studying ultra-high energy cosmic rays, the most energetic and rarest particles in the universe.
European Southern Observatory (ESO), Chile
ESO has built and operated some of the largest and most technologically-advanced telescopes in the world. Findings include the discovery of the most distant gamma-ray burst and evidence for a black hole at the centre of the Milky Way.
Event Horizon Telescope
In this project, worldwide existing and planned millimetre/submillimetre facilities are combined into a high-sensitivity, high angular resolution Event Horizon Telescope. Its first successes have been the image of the immediate environment of the supermassive black holes in the galaxy M87 and in our own Milky Way.
Learn more about how Master's students helped with the capturing the first image of a black hole in a interview with professor Falcke.
Low-frequency array for Radio Astronomy (LOFAR)
LOFAR is a Dutch ICT project, that connects radio telescopes in the Netherlands, Germany, the United Kingdom, France and Sweden. Together, they can produce much more detailed information about the early start of our universe.
HiSPARC, The Netherlands
In the project HiSPARC, researchers provide secondary school students with a kit for a cosmic ray detector that they can install on the roof of their school. The information from all these different locations is highly valuable for determining the source of the cosmic rays.
To give you an idea of the research performed at Radboud University, two relevant research departments are highlighted here.
Department of High Energy Physics
High Energy Physics (HEP) performs exciting, cutting-edge theoretical and experimental research in Quantum Fields, Particles and Gravity. Its scientific aim is to uncover the ultimate building blocks of matter, space and time and the fundamental laws governing their interaction at extremely high energies and short distances, beyond currently established theories.
Department of Astrophysics
The Universe forms a physics laboratory, in which events take place which cannot be recreated here on Earth and which are settled at the edge or even beyond the edge of our knowledge of physics. The department of Astrophysics explores this edge and tries to understand how highly energetic astrophysical phenomena are caused and affect their surroundings. Research topics are: Physics of Compact Objects, Astroparticle Physics & Gravitational Waves, and Galactic Ecology.