LEARN – Study and Applications of Nuclear Reactions

LEARN staffs study the process and mechanisms at work in nuclear reactions and provide expertise to address issues in related topics or societal issues. Activities include the description and prediction of elementary-particle- (photons, neutrinos) or nucleon-induced nuclear reactions and development of the experimental and modeling tools needed for those studies.

Activities

LEARN is focused on three main experimental activities:

  • Study of neutron-induced reactions;
  • Study of the fission process;
  • Beta decay and study of reactor neutrinos.

These activities are supported by a transverse modeling program with a particular emphasis on high energy reactions (spallation reactions).

LEARN projects make use of intense sources of neutrons (and neutrinos) in Europe covering the entire energy range from meV to GeV:

  • Nuclear Physics at ILL (Grenoble);
  • n_TOF at CERN and GELINA at JRC-Geel;
  • NFS at GANIL/SPIRAL2.

Applications

LEARN brings its nuclear expertise for the development of new technologies such as the use of neutrinos for non-proliferation control of special nuclear material and for the development of new facilities such as compact neutron sources. It also makes available to users experimental data, which are disseminated via nuclear databases (JEFF, ENDF, JENDL), and nuclear reaction models through integration into the most widely used transport codes (GEANT4, MCNP6, PHITS). These activities help improve the accuracy of the simulation of complex systems required by numerous applications for research, nuclear energy, non-proliferation, health…

Projects

  • nTOF

    nTOF

    Goal This activity is focused on the study of neutron-induced reactions for nuclear astrophysics (stellar and big bang nucleosynthesis), for nuclear structure (levels density) and for nuclear…

  • SPALADIN

    SPALADIN

    Presentationof theproject Physics& programmes Spallation reaction study, physics data for nuclear energy Goals of the experiment The measurement in coincidence and in inverse kinematics of the…

  • The NUCLEUS experiment completes its first commissioning and moves to Chooz!

    The NUCLEUS experiment completes its first commissioning and moves to Chooz!

    The NUCLEUS experiment aims to demonstrate bolometric detection of reactor antineutrinos, based on an interaction process known as coherent neutrino nucleus scattering. After a year devoted to setting up the shielding and cryogenic infrastructure on the premises of Munich’s Technical University, the project reached an important milestone this autumn with the conclusion of a 50-day…

PhD thesis