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The nuclear landscape has been investigated within the triaxial relativisticHartree-Bogoliubov theory with the PC-PK1 density functional, and thebeyond-mean-field dynamical correlation energies are taken into account by amicroscopically mapped five-dimensional collective Hamiltonian withoutadditional free parameters. The effects of triaxial deformation and dynamicalcorrelations on the nuclear landscape are analyzed. The present results providethe best description of the experimental binding energies, in particular formedium and heavy mass regions, in comparison with the results obtainedpreviously with other state-of-the-art covariant density functionals. Theinclusion of the dynamical correlation energies plays an important role in thePC-PK1 results. It is emphasized that the nuclear landscape is considerablyextended by the PC-PK1 functional in comparison with the previous results withother density functionals, which may be due to the different isovectorproperties in the density functionals.

Nuclear landscape in a mapped collective Hamiltonian from covariant density functional theory