We study the extension of our translationally invariant treatment of few-body nuclear systems to heavier nuclei. At the same time we also introduce state-dependent correlation operators. Our techniques are tailored to those nuclei that can be dealt with in LS coupling, which includes all nuclei up to the shell closure at A=40. We study mainly p-shell nuclei in this paper. A detailed comparison with other microscopic many-body approaches is made, using a variety of schematic nuclear interactions. It is shown that our methodology produces very good energies, and presumably also wave functions, for medium mass nuclei
The momentum distributions, natural orbits, spectroscopic factors and quasi-hole wave functions of t...
Correlations play a crucial role in the nuclear many-body problem. We give an overview of recent dev...
Pair densities and associated correlation functions provide a critical tool for introducing many-bod...
We study the extension of our translationally invariant treatment of few-body nuclear systems to hea...
We study the extension of our translationally invariant treatment of few-body nuclear systems to inc...
We study the extension of our translationally invariant treatment of few-body nuclear systems to inc...
Translationally invariant treatment of pair correlations in nuclei: I. Spin and isospin dependent co...
The translational invariant formulation of the coupled-cluster method is presented here at the compl...
The Unitary Correlation Operator Method (UCOM) and the Similarity Renormalization Group (SRG) allow ...
We present a novel scheme for nuclear structure calculations based on realistic nucleon-nucleon pote...
An ab-initio description of atomic nuclei that solves the nuclear many-body prob-lem for realistic n...
We study microscopically the ground state properties of 16O and 40Ca nuclei within correlated basis ...
Background: Computationally tractable models of atomic nuclei is a long-time goal of nuclear structu...
We sketch an approximate method to quantify the number of correlated pairs in any nucleus A. It is b...
Recently a revival of the interest on the subject of the proton-neutron pairing is taking place due ...
The momentum distributions, natural orbits, spectroscopic factors and quasi-hole wave functions of t...
Correlations play a crucial role in the nuclear many-body problem. We give an overview of recent dev...
Pair densities and associated correlation functions provide a critical tool for introducing many-bod...
We study the extension of our translationally invariant treatment of few-body nuclear systems to hea...
We study the extension of our translationally invariant treatment of few-body nuclear systems to inc...
We study the extension of our translationally invariant treatment of few-body nuclear systems to inc...
Translationally invariant treatment of pair correlations in nuclei: I. Spin and isospin dependent co...
The translational invariant formulation of the coupled-cluster method is presented here at the compl...
The Unitary Correlation Operator Method (UCOM) and the Similarity Renormalization Group (SRG) allow ...
We present a novel scheme for nuclear structure calculations based on realistic nucleon-nucleon pote...
An ab-initio description of atomic nuclei that solves the nuclear many-body prob-lem for realistic n...
We study microscopically the ground state properties of 16O and 40Ca nuclei within correlated basis ...
Background: Computationally tractable models of atomic nuclei is a long-time goal of nuclear structu...
We sketch an approximate method to quantify the number of correlated pairs in any nucleus A. It is b...
Recently a revival of the interest on the subject of the proton-neutron pairing is taking place due ...
The momentum distributions, natural orbits, spectroscopic factors and quasi-hole wave functions of t...
Correlations play a crucial role in the nuclear many-body problem. We give an overview of recent dev...
Pair densities and associated correlation functions provide a critical tool for introducing many-bod...