Quantum-mechanical shell effects are expected to strongly enhance nuclear binding on an “island of stability” of superheavy elements. The predicted center at proton number Z = 114, 120, or 126 and neutron number N = 184 has been substantiated by the recent synthesis of new elements up to Z = 118. However, the location of the center and the extension of the island of stability remain vague. High-precision mass spectrometry allows the direct measurement of nuclear binding energies and thus the determination of the strength of shell effects. Here, we present such measurements for nobelium and lawrencium isotopes, which also pin down the deformed shell gap at N = 152
A high-precision direct Penning trap mass measurement has revealed a 0.5-MeV deviation of the bindin...
International audienceThe nuclear structure of species at the extreme of highest atomic numbers Zand...
Penning-trap mass spectrometry of radionuclides provides accurate mass values and absolute binding e...
Quantum-mechanical shell effects are expected to strongly enhance nuclear binding on an “island of s...
Atomic nuclei far from stability continue to challenge our understanding. For example, theoretical m...
High-precision mass measurements of radionuclides with state-of-the-art mass spectrometry allows us ...
Mass measurements of very neutron-rich nuclei near the N=20 and 28 shell closures are presented. Sev...
AbstractMass measurements of very neutron-rich nuclei near the N=20 and 28 shell closures are presen...
Superheavy nuclei exist solely due to quantum shell effects, which create a pocket in the potential-...
Superheavy nuclei exist solely due to quantum shell effects, which create a pocket in the potential...
Superheavy nuclei exist solely due to quantum shell effects, which create a pocket in the potential-...
International audienceSuperheavy nuclei exist solely due to quantum shell effects,which create a poc...
The "island of inversion" around 32Mg is one of the most important paradigms for studying the disapp...
International audienceThe existence of super-heavy nuclei can only be explained by the introduction ...
A high-precision direct Penning trap mass measurement has revealed a 0.5-MeV deviation of the bindin...
International audienceThe nuclear structure of species at the extreme of highest atomic numbers Zand...
Penning-trap mass spectrometry of radionuclides provides accurate mass values and absolute binding e...
Quantum-mechanical shell effects are expected to strongly enhance nuclear binding on an “island of s...
Atomic nuclei far from stability continue to challenge our understanding. For example, theoretical m...
High-precision mass measurements of radionuclides with state-of-the-art mass spectrometry allows us ...
Mass measurements of very neutron-rich nuclei near the N=20 and 28 shell closures are presented. Sev...
AbstractMass measurements of very neutron-rich nuclei near the N=20 and 28 shell closures are presen...
Superheavy nuclei exist solely due to quantum shell effects, which create a pocket in the potential-...
Superheavy nuclei exist solely due to quantum shell effects, which create a pocket in the potential...
Superheavy nuclei exist solely due to quantum shell effects, which create a pocket in the potential-...
International audienceSuperheavy nuclei exist solely due to quantum shell effects,which create a poc...
The "island of inversion" around 32Mg is one of the most important paradigms for studying the disapp...
International audienceThe existence of super-heavy nuclei can only be explained by the introduction ...
A high-precision direct Penning trap mass measurement has revealed a 0.5-MeV deviation of the bindin...
International audienceThe nuclear structure of species at the extreme of highest atomic numbers Zand...
Penning-trap mass spectrometry of radionuclides provides accurate mass values and absolute binding e...