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The predictive power of the deformed relativistic Hartree-Bogoliubov theoryin continuum (DRHBc) for nuclear mass is examined in the superheavy region,$102 \le Z \le 120$. The accuracy of predicting the 10 (56) measured (measuredand empirical) masses is $0.635$ ($0.642$) MeV, in comparison with $0.515$($1.360$) MeV by WS4 and $0.910$ ($2.831$) MeV by FRDM. Possible stabilityagainst multineutron emission beyond the two-neutron drip line is explored bythe DRHBc theory, which takes into account simultaneously the deformationeffects, the pairing correlations, and the continuum effects. Nuclei stableagainst two- and multineutron emissions beyond the two-neutron drip line arepredicted in $_{106}$Sg, $_{108}$Hs, $_{110}$Ds, and $_{112}$Cn isotopicchains, forming a peninsula of stability adjacent to the nuclear mainland. Thisstability is mainly due to the deformation which significantly affects theshell structure around the Fermi surface. The pairing correlations andcontinuum influence the stability peninsula in a self-consistent way.

physical review. c

Predictive power for superheavy nuclear mass and possible stability  beyond the neutron drip line in deformed relativistic Hartree-Bogoliubov  theory in continuum