Neutrino Physics

Study of neutrino interactions with ANNIE at the Fermilab Booster Beam
  • ANNIE Phase-II (water+gadolinium)
    • study of GeV-neutrino interactions as background for
      Diffuse Supernova Neutrino and proton decay searches
    • Novel reconstruction algorithms for particle and event discrimination
    • Data stability monitoring tools and event display
  • ANNIE Phase-III (water-based liquid scintillator, WbLS)
    • Design study and simulations for the WbLS phase
    • Liquid-Scintillator-Cherenkov-Cube (LSC3) to study the separation
      of Cherenkov and scintillation signals in a laboratory-scale setup

Prof. Dr. Michael Wurm

Solar neutrino spectroscopy with Borexino
  • Increasing sensitivity for solar CNO neutrinos
  • Pointing at the Sun: Directional reconstruction of solar neutrinos
  • Study of long-term modulation of signals and backgrounds to increase sensitivity
  • Advanced veto techniques for cosmic muon-induced backgrounds

Prof. Dr. Michael Wurm

Neutrino physics with IceCube
  • Analyses
    • Supernova data acquisition and analysis techniques
    • Energy and directional reconstruction
    • Development of novel detection techniques
    • Neutrino oscillation physics and non-standard phenomena
    • Atmospheric neutrino physics
    • Cosmic neutrino composition analysis
    • PINGU and Phase-I sensitivity studies
    • Oscillation analysis framework
  • Super Nova Data acquisition
  • Monitoring software for the IceCube detector
  • Muon track reconstruction

Prof. Dr. Sebastian Böser
Prof. Dr. Lutz Köpke

Neutrino mass hierarchy with the JUNO reactor neutrino experiment
  • Lab measurements and monitoring systems for liquid scintillator transparency
  • The OSIRIS pre-detector for monitoring the radiopurity of the liquid scintillator:
    • Mechanical design of the detector and the liquid handling system
    • Laboratory-scale prototype (1:10) of OSIRIS to study
      liquid flow/stratification and mechanoluminescence
    • Simulation studies for detector design & monitoring sensitivity
  • Sensitivity studies for the detection of Supernova/DSNB neutrinos in JUNO

Prof. Dr. Michael Wurm

Neutrino mass with Project 8
  • Track and event reconstruction
  • Trigger and online reconstruction algorithm
  • Atomic tritium source development
  • Phase IV magnet and source design

Prof. Dr. Sebastian Böser


For more information about the experiments and the involvement of the ETAP groups please select the experiments on left side under Experiments or in the right menu. You can also get in touch with the corresponding contact person.