Deeply quasi-bound state in single- and double- nuclear clusters
arXiv:1612.00685 · doi:10.1140/epja/i2016-16361-1
Abstract
New calculations of the quasi-bound state positions in kaonic nuclear cluster are performed using non-relativistic four-body Faddeev-type equations in AGS form. The corresponding separable approximation for the integral kernels in the three- and four-body kaonic clusters is obtained by using the Hilbert-Schmidt expansion procedure. Different phenomenological models of potentials with one- and two-pole structure of (1405) resonance and separable potential models for - and nucleon-nucleon interactions, are used. The dependence of the resulting four-body binding energy on models of interaction is investigated. We obtained the binding energy of the quasi-bound state 80-94 MeV with the phenomenological potentials. The width is about 5-8 MeV for the two-pole models of the interaction, while the one-pole potentials give 24-31 MeV width.
18 pages, 4 figures
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