Examination of the bound-state problem with lattice QCD potentials
arXiv:2402.06914 · doi:10.1103/PhysRevC.109.054002
Abstract
The developed Faddeev three-body equations are solved to search for bound-state solutions of a phi-meson and two nucleons system. The newly published spin $ \textrm{N-\ensuremathϕ} $ potential based on the -flavor lattice QCD simulations near physical point, and realistic Malfliet-Tjon (MT) potential, are employed. Our numerical calculations for system in maximum spin leads to ground state binding energy of about MeV and a matter radius of about fm. Our results indicates the possibility of the formation of new nuclear clusters.
12 pages, 2 figures,
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Cited by in corpus (9)
- On a possible H hypernucleus with HAL QCD interaction
- Folding procedure for - potential
- Exploring the interaction via femtoscopic study
- Study of light -mesic nuclei with HAL QCD interactions
- The systems based on HAL QCD interactions
- Examination of the lattice QCD-motivated strong attractive potentials in the system
- -C states and detailed study of momentum space method for - and -nucleus bound states
- Probing N interaction through bound states of system
- Possible Existence of H, H, He, and He Nuclei