(i) It sheds light on the relation between the hadronic phenomena and the underlying fundamental interaction among quarks, which are the basic building blocks of hadrons.
(ii) The understanding of many astrophysical phenomena depends on our knowledge of relevant nuclear reactions.
(iii) The experimental studies of the fundamental processes (e.g., neutrino oscillation experiments) require input from hadron and nuclear physics for their accurate interpretations.
Currently, a main thrust of our research is directed to the application of effective field theory (known as chiral perturbation theory) to nuclear systems with the view to giving accurate predictions to observables (cross sections) for various hadronic, electromagnetic and weak-interaction processes, in particular for those which are relevant to astrophysics and/or neutrino oscillation experiments.
Updated April, 2016 by F. M.