Research
We develop theoretical tools to interpret current and future experiments, and to formulate new questions about the nature of matter and the fundamental forces.
Four areas, one ambition
Our research areas intersect and enrich each other. This is a first gateway to the questions we investigate.
Higgs · LHC · Precision
We study its properties, quantum corrections, and possible deviations from Standard Model predictions.
We combine formal studies with data-oriented analyses to translate collider observations into tests of its fundamental properties.
EFT · Dark matter · Axions · SUSY
Dark matter, neutrino masses, and the matter–antimatter asymmetry point to open questions that require new theoretical frameworks and experimental strategies.
We combine effective field theory techniques to identify patterns of new physics with concrete ultraviolet models that let us explore their origin and signatures.
Neutrinos · IceCube · Astroparticles
Neutrinos let us explore scales and environments that are otherwise inaccessible. We investigate their oscillations, astrophysical origin, and connections to high-energy observatories.
Cosmology · Gravitational waves · Astroparticles
The electroweak phase transition and the dynamics of fundamental fields connect particle physics with far-reaching cosmological questions and with new astrophysical messengers.