decay properties of nucleus Og within two-potential approach
arXiv:1710.03008 · doi:10.1088/1674-1137/41/12/124109
Abstract
The decay half-life of unknown nucleus Og is predicted within two-potential approach, and preformation probabilities of 64 odd- nuclei in the region of proton numbers and neutron numbers from Cf to Og are extracted. In addition, based on the latest experimental data, a new set of parameters for preformation probabilities considering the shell effect and proton-neutron interaction are obtained. The predicted decay half-life of Og is 0.16 ms within a factor of 4.97 as well as the spin and parity of ground states for nuclei Sg, Fl and Lv are , and , respectively.
arXiv commentChinese Physics C (2017) in press
References in corpus (17)
- Nuclear Ground-State Masses and Deformations
- Microscopic mass formulae
- Surface diffuseness correction in global mass formula
- Universal decay law in charged-particle emission and exotic cluster radioactivity
- alpha-nucleus potentials, alpha-decay half-lives, and shell closures for superheavy nuclei
- Alpha-decay half-lives, alpha-capture and alpha-nucleus potential
- particle preformation in heavy nuclei and penetration probability
- Semiempirical Shell Model Masses with Magic Number Z = 126 for Superheavy Elements
- Systematic study of decay half-lives for even-even nuclei within a two-potential approach
- Modified two-potential approach to tunneling problems
- The preformation probability inside Alpha-emitters having different ground state spin-parity than daughters
- Systematic study of decay for isomer related nuclei within a two-potential approach
- Systematic study of decay for odd- nuclei within a two-potential approach
- Alpha decay as a probe for the structure of neutron-deficient nuclei
- Systematic study of favored α-decay half-lives of closed shell odd-A and doubly-odd nuclei related to ground and isomeric states
- Mass Predictions of Atomic Nuclei in the Infinite Nuclear Matter Model
- Correlations between neutrons and protons near Fermi surface and of super-heavy nuclei