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Neutrinos in the energy range from a few hundred MeV to several GeV are relevant for the study of neutrino oscillation by atmospheric neutrino observation and long baseline experiments. In this intermediate energy region, charged-current quasi-elastic scattering (CCQE), single pion production, and deep inelastic scattering coexist with comparable contributions. The T2K experiment has been using CCQE events as the primary data sample to measure neutrino oscillations, whereas single pion production events are used as the signal in the recent analyses. Single pion production is crucial in the NOvA and future DUNE experiment as they measure the neutrino oscillation at higher energy than T2K with the longer baseline. Similarly, single pion production can be a background in proton decay searches at Super-Kamiokande and future experiments, including Hyper-Kamiokande. Therefore, it is important to understand the cross section and kinematics of single pion production to improve the precision of neutrino oscillation parameter measurements and proton decay searches. For this purpose, we evaluated a new model for single pion production, called the dynamical coupled-channels (DCC) model. In this study, we compared it with the Berger-Sehgal model, which is currently used in the NEUT neutrino interaction generator and the cross section measurements from the MiniBooNE experiment.
Yamauchi et al. (Wed,) studied this question.