Abstract

A recent high-resolution αα, XX-ray, and γγ-ray coincidence-spectroscopy experiment offered first glimpse of excitation schemes of isotopes along αα-decay chains of Z=115Z=115. To understand these observations and to make predictions about shell structure of superheavy nuclei below 288115^{288}115, we employ two complementary mean-field models: self-consistent Skyrme Energy Density Functional approach and the macroscopic-microscopic Nilsson model. We discuss the spectroscopic information carried by the new data. In particular, candidates for the experimentally observed E1E1 transitions in 276^{276}Mt are proposed. We find that the presence and nature of low-energy E1E1 transitions in well-deformed nuclei around Z=110,N=168Z=110, N=168 strongly depends on the strength of the spin-orbit coupling; hence, it provides an excellent constraint on theoretical models of superheavy nuclei. To clarify competing theoretical scenarios, an experimental search for E1E1 transitions in odd-AA systems 275,277^{275,277}Mt, 275^{275}Hs, and 277^{277}Ds is strongly recommended.

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