Quantum fermionic effects explain nearly all effective quadrupole deformation in light/spherical nuclei but less than 10% in heavy deformed nuclei, showing the classical rigid-rotor picture is insufficient for quantitative work.
Configuration mixing of angular-momentum projected triaxial relativistic mean-field wave functions
2 Pith papers cite this work. Polarity classification is still indexing.
2
Pith papers citing it
abstract
The framework of relativistic energy density functionals is extended to include correlations related to the restoration of broken symmetries and to fluctuations of collective variables. The generator coordinate method is used to perform configuration mixing of angular-momentum projected wave functions, generated by constrained self-consistent relativistic mean-field calculations for triaxial shapes. The effects of triaxial deformation and of $K$-mixing is illustrated in a study of spectroscopic properties of low-spin states in $^{24}$Mg.
fields
nucl-th 2verdicts
UNVERDICTED 2representative citing papers
MR-CDFT calculations for 43S identify the ground state as dominated by a prolate intruder 1qp configuration, the 7/2-1 as a high-K prolate isomer, and the 3/2-2 as an oblate-prolate admixture.
citing papers explorer
-
Quantum effects in the quadrupole rotor picture of ultra-relativistic ion-ion collisions
Quantum fermionic effects explain nearly all effective quadrupole deformation in light/spherical nuclei but less than 10% in heavy deformed nuclei, showing the classical rigid-rotor picture is insufficient for quantitative work.
-
Multireference covariant density functional theory for shape coexistence and isomerism in $^{43}$S
MR-CDFT calculations for 43S identify the ground state as dominated by a prolate intruder 1qp configuration, the 7/2-1 as a high-K prolate isomer, and the 3/2-2 as an oblate-prolate admixture.