He as a interaction constraint
arXiv:nucl-th/9709003 · doi:10.1016/S0375-9474(97)00480-6
Abstract
The Nijmegen OBE potential D is SU(3) rotated to model the strangeness -2 sector of the baryon-baryon force. Soft core repulsion is introduced to regularize the singular nature of the OBE functions. The strength of the S interaction is adjusted to model three scenarios: (1) a bound state, (2) a narrow virtual, or antibound, state, and (3) an unbound state in which the force is weakly attractive. Using a separable approximation to these potentials, the binding energy of He is calculated in an model. The resultant binding energies suggest that the strength of the S and the interactions should be similar, if the coupling between the and channels is taken into consideration.
27 pages,2 eps figures
Cited by in corpus (19)
- Nucleon and hadron structure changes in the nuclear medium and impact on observables
- Faddeev-Yakubovsky calculations for light Lambda-Lambda hypernuclei
- Faddeev calculations for the A=5,6 Lambda-Lambda hypernuclei
- Lambda-Lambda bond energy from the Nijmegen potentials
- Production of doubly strange hypernuclei via Ξ- doorways in the 16O(K-, K+) reaction at 1.8 GeV/c
- Cluster models of Lambda-Lambda-6He and Lambda-9Be hypernuclei
- The Lambda-Lambda Interaction and ^{6}_{Lambda Lambda}He
- What Does Free Space Lambda-Lambda Interaction Predict for Lambda-Lambda Hypernuclei?
- Hyperonic mixing in five-baryon double-strangeness hypernuclei in a two-channel treatment
- Double Hypernuclei and the Nuclear Medium Effective Interaction
- Faddeev calculation of 6 He Lambda Lambda using SU_6 quark-model baryon-baryon interactions
- in cluster effective field theory
- Comment on recent Strangeness -2 predictions
- The --emission puzzle in He decay
- and the final state interaction
- Hypernuclei in Halo/Cluster Effective Field Theory
- - wave resonance
- Neutral baryonic systems with strangeness
- The reaction as a probe of the interaction