Low-energy C continuum states in three- model
arXiv:2505.14981 · doi:10.1103/3rkb-tzr3
Abstract
The electric multipole strength distributions for transitions from the ground state to (, , , and ) continuum states are studied in terms of model. Several sets of the Hamiltonian are introduced phenomenologically with conventional - interaction potentials and potentials with different range parameters. The transition strength distributions are obtained from wave functions of bound- and continuum states calculated by the Faddeev three-body formalism. From these strength distributions, the resonance parameters (energy, -decay width, and transition strength) of resonance states are extracted. Dependencies of these observables on interaction potential models are studied to examine the introduced interaction models. Using the transition strength distributions, excitation-energy spectra in the reaction are calculated to compare with experimental data.
23 pages, 7 figures
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