Symmetry plays a fundamental role in physics. The quasi-degeneracy between single-
particle orbitals (n, l, j= l+ 1/2) and (n− 1, l+ 2, j= l+ 3/2) indicates a hidden symmetry in …

Covariant density functional theory with a few parameters has been widely used to describe
the ground-and excited-state properties for nuclei all over the nuclear chart. In order to …

A deformed relativistic Hartree Bogoliubov (RHB) theory in continuum is developed aiming
at a proper description of exotic nuclei, particularly those with a large spatial extension. In …

The potential energy surfaces of actinide nuclei in the (β 20, β 22, β 30) deformation space
are obtained from a multidimensional constrained covariant density functional theory. With …

Ground state properties of carbon isotopes, including root-mean-square radii, neutron
separation energies, single particle spectra, and shapes are systematically studied with the …

Background: Many different shape degrees of freedom play crucial roles in determining the
nuclear ground state and saddle point properties and the fission path. For the study of …

Considering ten well-known relativistic mean field models, we invoke feeble interaction
between hadronic matter and fermionic dark matter (DM) χ via new physics scalar (ϕ) and …

By combining relativistic mean field models and equivparticle models with density-
dependent quark masses, we construct explicitly “a quark Fermi sea” and “a baryonic Fermi …

In the framework of the Thomas-Fermi approximation, we systematically study the EOSs and
microscopic structures of neutron star matter in a vast density range with nb≈ 10− 10-2 fm …

The intrinsic nuclear shapes deviating from a sphere not only manifest themselves in
nuclear collective states but also play important roles in determining nuclear potential …