Algebraic Model for scattering in three-s-cluster systems. I. Theoretical Background
arXiv:nucl-th/0005045 · doi:10.1103/PhysRevC.63.034606
Abstract
A framework to calculate two-particle matrix elements for fully antisymmetrized three-cluster configurations is presented. The theory is developed for a scattering situation described in terms of the Algebraic Model. This means that the nuclear many-particle state and its asymptotic behaviour are expanded in terms of oscillator states of the intra-cluster coordinates. The Generating Function technique is used to optimize the calculation of matrix elements. In order to derive the dynamical equations, a multichannel version of the Algebraic Model is presented.
20 pages, 1 postscript figure, submitted to Phys. Rev. C
References in corpus (2)
Cited by in corpus (17)
- Three-body continuum states on a Lagrange mesh
- From bound states to the continuum
- The puzzling two-proton decay of Kr
- Algebraic Model for scattering of three-s-cluster systems. II. Resonances in the three-cluster continuum of 6He and 6Be
- Low-temperature triple-alpha rate in a full three-body model
- Three-cluster dynamics within an ab initio framework
- A microscopic three-cluster model with nuclear polarization applied to the resonances of 7Be and the reaction 6Li(p,3He)4He
- A Microscopic Cluster Description of 12C
- New approach to determine proton-nucleus interactions from experimental bremsstrahlung data
- Formation and decay of resonance state in Be and B nuclei. Microscopic three-cluster model investigations
- Monopole and quadrupole polarization effects on the alpha-particle description of Be
- Two- and three-cluster decays of light nuclei with the hyperspherical harmonics
- Effects of the Coulomb interaction on parameters of resonance states in mirror three-cluster nuclei
- Systematic investigation of the Hoyle-analog states in light nuclei
- A unique decay process: beta delayed emission of a proton and a neutron by the Li halo nucleus
- Study of the Quartic Anharmonic Oscillator Using the System's Wave Function Expansion in the Oscillator Basis
- Improved convergence of scattering calculations in the oscillator representation