A model of charmed baryon-nucleon potential and 2- and 3-body bound states with charmed baryon
Saori Maeda (1), Makoto Oka (1,2), Akira Yokota (1), Emiko Hiyama (3),, and Yan-Rui Liu (4) ((1) Tokyo Institute of Technology, (2) Advanced Science, Research Center, Japan Atomic Energy Agency, (3) Nishina Center for, Accelerator-Based Science, The institute of Physical

TL;DR
This paper develops a potential model for charmed baryon-nucleon interactions, predicts bound states, and explores three-body systems, contributing to understanding of charmed baryon interactions in nuclear physics.
Contribution
The paper introduces a new potential model combining meson exchange and quark exchange for charmed baryon-nucleon interactions, predicting bound states and extending to three-body systems.
Findings
Bound $ ext{Λ}_c N$ states with $J^ ext{π}=0^+$ and $1^+$ are predicted.
Effective $ ext{Λ}_c N$ potential constructed for many-body calculations.
Predicted bound states in the $ ext{Λ}_c NN$ three-body system with $J=1/2$ and $3/2$.
Abstract
A potential model for the interaction between a charmed baryon (, , and ) and the nucleon () is constructed. The model contains a long-range meson ( and ) exchange part and a short-distance quark exchange part. The quark cluster model is used to evaluate the short-range repulsion and a monopole type form factor is introduced to the long-range potential to reflect the extended structure of hadrons. We determine the cutoff parameters in the form factors by fitting the scattering data with the same approach and we obtain four sets of parameters (a -- d). The most attractive potential (d) leads to bound states with and once the channel couplings among , and are taken into account. One can also investigate many-body problems with the model. Here, we construct an effective…
Peer Reviews
No public reviews on file for this paper yet. If you reviewed it on a platform where reviews are public (OpenReview, ICLR, NeurIPS, ICML), you can paste yours below so the community can read it here.
Videos
No videos yet. Explain this paper in a talk, walkthrough, or lecture? Add one.
