Configuration mixing of angular momentum projected self-consistent mean-field states for neutron-deficient Pb isotopes
M. Bender, P. Bonche, T. Duguet, P. -H. Heenen
Abstract
We study the low-lying collective excitation spectra of the neutron-deficient lead isotopes Pb182-Pb194 by performing a configuration mixing of angular-momentum and particle-number projected self-consistent mean-field states. The same Skyrme interaction SLy6 is used supplemented by a density-dependent zero-range pairing force. This study supports the interpretation of spectra made on the grounds of more schematic models in terms of coexisting spherical, oblate, prolate and superdeformed prolate structures. The model qualitatively reproduces the variation of the spectra with neutron number. Our results for E0 and E2 transition probabilities are compared with the few existing experimental data. Finally, we predict the presence of superdeformed bands at low excitation energy in the most neutron-deficient isotopes.
Create a lesson
Related papers
Constrained Hamiltonian Formulation of Kinetic Theory for Relativistic Spin-1/2 Particles
Jie Zhou, Ying Shan Zhao, Yifeng Sun
Chiral invariant mass and scale symmetry in dense matter from a dilaton compensated parity doublet model
Yao Ma, Bikai Gao, Masayasu Harada et al.
Linking chiral nuclear forces to light-ion collisions: a global sensitivity analysis
Thomas Duguet, Andreas Ekström, Giuliano Giacalone et al.
Comparison of Methods for Extracting Three-Dimensional Lévy Source Parameters in sNN = 200 GeV Au+Au Collisions with EPOS3
Máté Szilágyi, Máté Csanád, Dániel Kincses
Manifestation of scale symmetry in nuclear medium
Yong-Liang Ma
Wigner distribution modeling of nuclear state in NuWro Monte Carlo event generator
Rwik Dharmapal Banerjee, Alexis Nikolakopoulos, Jan T. Sobczyk et al.