  To apply the high-precision realistic nucleon-nucleon ($NN$) potentials on
the investigations of relativistic many-body methods, the new versions of
charge-dependent Bonn (CD-Bonn) $NN$ potential are constructed within the
pseudovector pion-nucleon coupling instead of the pseudoscalar type in the
original CD-Bonn potential worked out by Machleidt [Phys. Rev. C 63, 024001
(2001)]. Two effective scalar mesons are introduced, whose coupling constants
with nucleon are independently determined at each partial wave for total
angular momentum $J\leq 4$, to describe the charge dependence of $NN$
scattering data precisely, while the coupling constants between vector,
pseudovector mesons and nucleon are identical in all channels. Three revised
CD-Bonn potentials adopting the pseudovector pion-nucleon couplings (pvCD-Bonn)
are generated by fitting the Nijmegen PWA phase shift data and deuteron binding
energy with different pion-nucleon coupling strengths, which can reproduce the
phase shifts at spin-single channels and low-energy $NN$ scattering parameters
very well, and provide the significantly different mixing parameters at
spin-triplet channels. Furthermore, the $D$-state probabilities of deuteron
from these potentials range from $4.22\%$ to $6.05\%$. It demonstrates that
these potentials contain different components of tensor force, which will be
useful to discuss the roles of tensor force in nuclear few-body and many-body
systems.
