🔭 CRISP Package
A Python package for computing UHECR propagation quantities using closed-form probability distribution functions. Applicable to both in-source and extragalactic scenarios.
My work centers on simulations of Ultra-High-Energy Cosmic Rays (UHECRs) and Multimessenger Astrophysics. Especially interested the impact of interaction cross sections on the production and propagation of UHECRs. I develop simulation code and implement interaction models for cosmic-ray propagation, bridging theoretical and experimental knowledge with observational data from observatories of cosmic radiation.
Developing propagation codes for UHECRs; implementing hadronic models in CRPropa; contributing to the Pierre Auger Collaboration and the DFG-ANR MICRO project.
Thesis on nuclear interactions for UHECR source simulations and propagation.
Monte Carlo simulations for laser-plasma experiments using FLUKA. Radiation protection and shielding design.
Performed Monte Carlo simulations for particle accelerator applications within the CATHI project. Estimated radiation profilesfor the upgrade of ISOLDE using FLUKA.
A Python package for computing UHECR propagation quantities using closed-form probability distribution functions. Applicable to both in-source and extragalactic scenarios.
Member of the developers and contributing to the project. Implementing hadronic interaction modules in the CRPropa framework for cosmic-ray propagation.
Investigating bursting source scenarios with new simulation frameworks to explain the observed UHECR spectrum from a multi-messenger approach. Funded jointly by DFG and NFR.
Contributing to the world's largest observatory for ultra-high-energy cosmic rays, focusing on composition studies, anisotropy analyses, and propagation modeling.
Member of the FLUKA collaboration; development of Monte Carlo simulation models for particle-matter interactions.