The Green’s function method in the Quasiparticle Time Blocking Approximation is applied to nuclear excitations in 132Sn and 208Pb. The calculations are performed self-consistently using a Skyrme interaction. The method combines the conventional RPA with an exact single-particle continuum treatment and considers in a consistent way the particle-phonon coupling. We reproduce not only the experimental values of low-and high-lying collective states but we also obtain fair agreement with the data of non-collective low-lying states that are strongly influenced by the particle-phonon coupling
The Energy Density Functional theory is one of the most used methods developed in nuclear structure....
We explore giant resonance spectra and low-lying dipole strength in the Ni and Sn chains from proton...
The equation of motion phonon method is adopted to investigate the dipole response in neutron rich n...
The Green's function method in the Quasiparticle Time Blocking Approximation is applied to nuclear e...
We present fully self-consistent calculations of isoscalar giant monopole and quadrupole as well as ...
The quasiparticle time blocking approximation (QTBA) is applied to describe E1 excitations in the ev...
A general microscopic approach to describe properties of excited states in non-magic nuclei is form...
A survey of some results in the modern microscopic theory of properties of nuclear reactions with ga...
The E1 strength functions and radiative capture cross sections for several compound Sn isotopes, inc...
A short review on the self-consistent RPA based on the energy-density functional of the Skyrme type ...
We discuss major differences between electric and magnetic excitations in nuclei appearing in self-c...
A new theoretical approach to spin-isospin excitations in open-shell nuclei is presented. The develo...
The self-consistent mean-field (SCMF) theory describes many properties of the ground state and excit...
Recent results obtained by applying the method of self-consistent Green's functions to nuclei and nu...
A completely microscopic formalism has been developed to treat the observable properties of single-p...
The Energy Density Functional theory is one of the most used methods developed in nuclear structure....
We explore giant resonance spectra and low-lying dipole strength in the Ni and Sn chains from proton...
The equation of motion phonon method is adopted to investigate the dipole response in neutron rich n...
The Green's function method in the Quasiparticle Time Blocking Approximation is applied to nuclear e...
We present fully self-consistent calculations of isoscalar giant monopole and quadrupole as well as ...
The quasiparticle time blocking approximation (QTBA) is applied to describe E1 excitations in the ev...
A general microscopic approach to describe properties of excited states in non-magic nuclei is form...
A survey of some results in the modern microscopic theory of properties of nuclear reactions with ga...
The E1 strength functions and radiative capture cross sections for several compound Sn isotopes, inc...
A short review on the self-consistent RPA based on the energy-density functional of the Skyrme type ...
We discuss major differences between electric and magnetic excitations in nuclei appearing in self-c...
A new theoretical approach to spin-isospin excitations in open-shell nuclei is presented. The develo...
The self-consistent mean-field (SCMF) theory describes many properties of the ground state and excit...
Recent results obtained by applying the method of self-consistent Green's functions to nuclei and nu...
A completely microscopic formalism has been developed to treat the observable properties of single-p...
The Energy Density Functional theory is one of the most used methods developed in nuclear structure....
We explore giant resonance spectra and low-lying dipole strength in the Ni and Sn chains from proton...
The equation of motion phonon method is adopted to investigate the dipole response in neutron rich n...