Energies and widths for single-particle resonant states in the continuum in Sn-120, as the necessary input quantities of relativistic random phase approximation for the investigation of isoscalar giant octupole resonance, are determined by analytic continuation in the coupling constant (ACCC) method within the framework of self-consistent relativistic mean field (RMF) theory for the first time. For the effective interaction NL3, the results in this scheme agree well with those of scattering phase shift method on the basis of RMF. Similar calculations are carried out in neutron-rich nucleus Ni-84.Physics, NuclearPhysics, Particles & FieldsPhysics, MathematicalSCI(E)4ARTICLE201537-15451
Large-scale calculations of the E1 strength are performed within the random phase approximation (RPA...
The matrix equations of the random-phase approximation (RPA) are derived for the point-coupling Lagr...
We introduce a new relativistic energy density functional constrained by the ground state properties...
Single-particle resonant states in spherical nuclei are studied by an analytic continuation in the c...
Single-particle resonant states in spherical nuclei are studied by an analytic continuation in the c...
With the relativistic boundary condition, single-proton resonant states in spherical nuclei are stud...
With the relativistic boundary condition, single proton resonant states in spherical nuclei are stud...
Abstract With the relativistic boundary condition, single proton resonant states in spherical nuclei...
The physics of exotic nuclei with unusual N/Z ratios (isospin)-has attracted world-wide attention. T...
We present a simple scheme for taking into account the resonant continuum coupling in the relativist...
A proper treatment of the resonant continuum is to take account of not only the energy of the resona...
The self-consistent mean-field (SCMF) theory describes many properties of the ground state and excit...
Taking Sn-120 as an example, we discuss the pseudospin symmetry in the single proton resonant states...
The self-consistent quasiparticle random-phase approximation (QRPA) approach is formulated in the ca...
The relativistic mean-field plus random phase and quasiparticle random phase approximation calculati...
Large-scale calculations of the E1 strength are performed within the random phase approximation (RPA...
The matrix equations of the random-phase approximation (RPA) are derived for the point-coupling Lagr...
We introduce a new relativistic energy density functional constrained by the ground state properties...
Single-particle resonant states in spherical nuclei are studied by an analytic continuation in the c...
Single-particle resonant states in spherical nuclei are studied by an analytic continuation in the c...
With the relativistic boundary condition, single-proton resonant states in spherical nuclei are stud...
With the relativistic boundary condition, single proton resonant states in spherical nuclei are stud...
Abstract With the relativistic boundary condition, single proton resonant states in spherical nuclei...
The physics of exotic nuclei with unusual N/Z ratios (isospin)-has attracted world-wide attention. T...
We present a simple scheme for taking into account the resonant continuum coupling in the relativist...
A proper treatment of the resonant continuum is to take account of not only the energy of the resona...
The self-consistent mean-field (SCMF) theory describes many properties of the ground state and excit...
Taking Sn-120 as an example, we discuss the pseudospin symmetry in the single proton resonant states...
The self-consistent quasiparticle random-phase approximation (QRPA) approach is formulated in the ca...
The relativistic mean-field plus random phase and quasiparticle random phase approximation calculati...
Large-scale calculations of the E1 strength are performed within the random phase approximation (RPA...
The matrix equations of the random-phase approximation (RPA) are derived for the point-coupling Lagr...
We introduce a new relativistic energy density functional constrained by the ground state properties...