Superheavy elements have been searched for by neutron induced fission of mass separated samples. Various natural materials have been investigated : minerals, manganese nodules, lunar dust, meteoritic materials. Fissioning masses have been collected in the A = 300 mass region. However, one cannot conclude that these masses are superheavy elements because of a possible contamination of this mass region by molecules containing natural uranium or thorium. To test for this possibility, the ratios of fast to thermal neutron events have been determined in each separated mass region. These ratios cannot be completely understood as due to the fission of U or Th atoms. Some complementary results concerning the properties of the atoms contained in the...
Artificially produced chemical elements heavier than uranium have been known for more than...
Advanced theoretical methods and high-performance computers may finally unlock the secrets of nuclea...
New approaches for investigation of relatively stable nuclei of super heavy element (SHE) (Z > 110) ...
Superheavy elements have been searched for by neutron induced fission of mass separated samples. Var...
The main goal of the present work is the search for and identification of relatively stable nuclei o...
Abstract- New attempts have been made to synthesize superheavy elements (SHE) by nuclear reactions t...
We discuss the possibility whether superheavy elements can be produced in Nature by the astrophysica...
The fission process still remains a main factor that determines the stability of the atomic nucleus...
Abstract. We discuss the possibility whether superheavy elements can be produced in Nature by the as...
International audienceThe investigations of spontaneous fission of 268Db (Z = 105) have been perform...
Soon after the discovery of fission, Meitner, Bretscher and Cook found differences in the decay of v...
Precambrian uranium ores have been surveyed for evidence of other natural fission reactors. The requ...
In order to characterize the mass density of superheavy elements, we solve numerically the relativis...
Superheavy isotopes are highly neutron rich nuclei in the vicinity of neutron drip-line, stabilized ...
The nuclear shell model predicts that the next doubly magic shell-closure beyond "2"0"...
Artificially produced chemical elements heavier than uranium have been known for more than...
Advanced theoretical methods and high-performance computers may finally unlock the secrets of nuclea...
New approaches for investigation of relatively stable nuclei of super heavy element (SHE) (Z > 110) ...
Superheavy elements have been searched for by neutron induced fission of mass separated samples. Var...
The main goal of the present work is the search for and identification of relatively stable nuclei o...
Abstract- New attempts have been made to synthesize superheavy elements (SHE) by nuclear reactions t...
We discuss the possibility whether superheavy elements can be produced in Nature by the astrophysica...
The fission process still remains a main factor that determines the stability of the atomic nucleus...
Abstract. We discuss the possibility whether superheavy elements can be produced in Nature by the as...
International audienceThe investigations of spontaneous fission of 268Db (Z = 105) have been perform...
Soon after the discovery of fission, Meitner, Bretscher and Cook found differences in the decay of v...
Precambrian uranium ores have been surveyed for evidence of other natural fission reactors. The requ...
In order to characterize the mass density of superheavy elements, we solve numerically the relativis...
Superheavy isotopes are highly neutron rich nuclei in the vicinity of neutron drip-line, stabilized ...
The nuclear shell model predicts that the next doubly magic shell-closure beyond "2"0"...
Artificially produced chemical elements heavier than uranium have been known for more than...
Advanced theoretical methods and high-performance computers may finally unlock the secrets of nuclea...
New approaches for investigation of relatively stable nuclei of super heavy element (SHE) (Z > 110) ...