  The study of neutrino interactions has recently experienced a renaissance,
motivated by the fact that neutrino oscillation experiments depend critically
on an accurate models of neutrino interactions. These models have to predict
not only the signal and background populations that oscillation experiments see
at near and far detectors, but they must also predict how the neutrino's energy
which enters a nucleus gets transferred to energies of the particles that leave
the nucleus after the neutrino interacts. Over the past year there have been a
number of new results on many different neutrino (and antineutrino) interaction
channels using several different target nuclei. These results are often not in
agreement with predictions extraolated from charged lepton scattering
measurements, or even from predictions anchored to neutrino measurements on
deuterium. These new measurements are starting to give the community the
handles needed to improve the theoretical description of neutrino interactions,
which ultimately pave the way for precision oscillation measurements. This
report briefly summarizes recent results and points out where those results
differ from the predictions based on current models.
