the estimated 7000 nuclei produced in nature. The ab initio theory may employ a high-quality realistic nucleon-nucleon (NN) interaction, which gives an accurate description of NN scattering data and predictions for binding energies, spectra and other observables in light nuclei. Daejeon16 is a NN interaction [@SHIROKOV:2016] based on Chiral Effective Field Theory ($\chi$EFT), a promising theoretical approach to obtain a quantitative description of the nuclear force from the first principles [@MACHLEIDT:2011]. This interaction has been designed to describe light nuclei without explicit use of NNN interactions, which require a significant increase of computational resources. It has also been shown that this interaction provides good convergence of many-body ab initio NCSM calculations [@SHIROKOV:2016]. Properties of $^6\mathrm{Li}$ and other nuclei, such as $^3\mathrm{H}$, $^3\mathrm{He}$, $^4\mathrm{He}$, $^6\mathrm{He}$, $^8\mathrm{He}$, $^{10}\mathrm{B}$, $^{12}\mathrm{C}$ and $^{16}\mathrm{O}$, were investigated using the ab initio NCSM approach with the Daejeon16 NN interaction and compared with JISP16 [@SHIROKOV:2007] results. The results showed that Daejeon16 provides both improved convergence and better agreement with data than JISP16. These calculations were performed with the code MFDn [@MFDN:STERNBERG:2008; @MFDN:MARIS:2010; @MFDN:CPE:2014], a hybrid MPI/OpenMP code for ab initio nuclear structure calculations. However, one faces major challenges to approach convergence since, as the basis space increases, the 