Through ab initio approaches in nuclear theory, we may now seek to quantitatively understand the wealth of nuclear collective phenomena starting from the underlying internucleon interactions. No-core configuration interaction (NCCI) calculations for p-shell nuclei give rise to rotational bands, as evidenced by rotational patterns for excitation energies, electromagnetic moments and electromagnetic transitions. In this review, NCCI calculations of 7–9Be are used to illustrate and explore ab initio rotational structure, and the resulting predictions for rotational band properties are compared with experiment. We highlight the robustness of ab initio rotational predictions across different choices for the internucleon interaction
The rotational bands in nuclei with Z approximate to 100 are investigated systematically by using a ...
An innovative concept, the symmetry-adapted ab initio shell model, that capitalizes on partial as we...
Ab initio no-core configuration interaction (NCCI) calculations for the nuclear many-body problem ha...
AbstractThe emergence of rotational bands is observed in no-core configuration interaction (NCCI) ca...
Rotational bands have been observed to emerge in ab initio no-core configu- ration interaction (NCCI...
Within the low-lying spectrum of 10Be, multiple rotational bands are found, with strikingly differen...
Results for ab initio no-core shell model calculations in a symmetry-adapted SU(3)-based coupling sc...
We use algorithms of computational group theory to perform ab initio configuration-interaction calcu...
Symmetry-adapted no-core shell-model calculations reveal dominant symmetry patterns in the structure...
A simple model to study the collective coupling between pairing and rotational degrees of freedom in...
An innovative symmetry-guided concept, which capitalizes on partial as well as exact symmetries that...
We present a novel nuclear energy density functional method to calculate spectroscopic properties of...
The configuration interaction (CI) approach to solving the nuclear many-body problem, also known as ...
Background: Nuclear collective rotations have been successfully described by the cranking Hartree-Fo...
Single-reference coupled-cluster theory is an accurate and affordable computational method for the n...
The rotational bands in nuclei with Z approximate to 100 are investigated systematically by using a ...
An innovative concept, the symmetry-adapted ab initio shell model, that capitalizes on partial as we...
Ab initio no-core configuration interaction (NCCI) calculations for the nuclear many-body problem ha...
AbstractThe emergence of rotational bands is observed in no-core configuration interaction (NCCI) ca...
Rotational bands have been observed to emerge in ab initio no-core configu- ration interaction (NCCI...
Within the low-lying spectrum of 10Be, multiple rotational bands are found, with strikingly differen...
Results for ab initio no-core shell model calculations in a symmetry-adapted SU(3)-based coupling sc...
We use algorithms of computational group theory to perform ab initio configuration-interaction calcu...
Symmetry-adapted no-core shell-model calculations reveal dominant symmetry patterns in the structure...
A simple model to study the collective coupling between pairing and rotational degrees of freedom in...
An innovative symmetry-guided concept, which capitalizes on partial as well as exact symmetries that...
We present a novel nuclear energy density functional method to calculate spectroscopic properties of...
The configuration interaction (CI) approach to solving the nuclear many-body problem, also known as ...
Background: Nuclear collective rotations have been successfully described by the cranking Hartree-Fo...
Single-reference coupled-cluster theory is an accurate and affordable computational method for the n...
The rotational bands in nuclei with Z approximate to 100 are investigated systematically by using a ...
An innovative concept, the symmetry-adapted ab initio shell model, that capitalizes on partial as we...
Ab initio no-core configuration interaction (NCCI) calculations for the nuclear many-body problem ha...