We discuss the possibility whether superheavy elements can be produced in Nature by the astrophysical rapid neutron capture process. To this end we have performed fully dynamical network r-process calculations assuming an environment with neutron-to-seed ratio large enough to produce superheavy nuclei. Our calculations include two sets of nuclear masses and fission barriers and include all possible fission channels and the associated fission yield distributions. Our calculations produce superheavy nuclei with $\ensuremath A\approx 300$ that however decay on time scales of days
About half of the nuclei heavier than iron observed in nature are produced by the socalled rapid neu...
The possibility of synthesizing a doubly magic superheavy nucleus, $^{298}114_{184}$, is investigate...
The origin of the heaviest elements in our Universe is an unresolved mystery. We know that half of t...
Abstract. We discuss the possibility whether superheavy elements can be produced in Nature by the as...
It is well known that in fusion reactions one may get only neutron deficient superheavy nuclei locat...
The production of super-heavy transuranium elements by stellar nucleosynthesis processes remains an ...
The production of about half of the heavy elements found in nature is assigned to a specific astroph...
Abstract. There are only 3 methods for the production of heavy and superheavy (SH) nuclei, namely, f...
Superheavy elements have been searched for by neutron induced fission of mass separated samples. Var...
There are only 3 methods for the production of heavy and superheavy (SH) nuclei, namely, fusion reac...
Rapid neutron capture in stellar explosions is responsible for the heaviest elements in nature, up t...
We address the problem of the origin of heavier and super heavy elements in nature. Believing rapid ...
About half of the nuclei heavier than iron observed in nature are produced by the so-called rapid ne...
Abstract. Low values of the fusion cross sections and very short half-lives of nuclei with Z>120 ...
About half of the heavy elements in our Universe are synthesized by one process, the rapid neutron c...
About half of the nuclei heavier than iron observed in nature are produced by the socalled rapid neu...
The possibility of synthesizing a doubly magic superheavy nucleus, $^{298}114_{184}$, is investigate...
The origin of the heaviest elements in our Universe is an unresolved mystery. We know that half of t...
Abstract. We discuss the possibility whether superheavy elements can be produced in Nature by the as...
It is well known that in fusion reactions one may get only neutron deficient superheavy nuclei locat...
The production of super-heavy transuranium elements by stellar nucleosynthesis processes remains an ...
The production of about half of the heavy elements found in nature is assigned to a specific astroph...
Abstract. There are only 3 methods for the production of heavy and superheavy (SH) nuclei, namely, f...
Superheavy elements have been searched for by neutron induced fission of mass separated samples. Var...
There are only 3 methods for the production of heavy and superheavy (SH) nuclei, namely, fusion reac...
Rapid neutron capture in stellar explosions is responsible for the heaviest elements in nature, up t...
We address the problem of the origin of heavier and super heavy elements in nature. Believing rapid ...
About half of the nuclei heavier than iron observed in nature are produced by the so-called rapid ne...
Abstract. Low values of the fusion cross sections and very short half-lives of nuclei with Z>120 ...
About half of the heavy elements in our Universe are synthesized by one process, the rapid neutron c...
About half of the nuclei heavier than iron observed in nature are produced by the socalled rapid neu...
The possibility of synthesizing a doubly magic superheavy nucleus, $^{298}114_{184}$, is investigate...
The origin of the heaviest elements in our Universe is an unresolved mystery. We know that half of t...