  With an ever-increasing interest in water properties, many intermolecular
force fields have been proposed to describe the behavior of water.
Unfortunately, good models for liquid water usually cannot provide
simultaneously an accurate melting point for ice. For this reason, the
TIP4P/Ice model was developed at targeting the melting point, and has become
the preferred choice for simulating ice at coexistence. Unfortunately,
available data for its dynamic properties in the liquid state are scarce.
Therefore, we demonstrate a series of simulations aimed at the calculation of
transport coefficients for the TIP4P/Ice model over a large range of
thermodynamic conditions, ranging from $T=245$ K to $T=350$ K for the
temperature and from $p=0$ to $p=500$ MPa for the pressure. We have found that
the self-diffusion (shear viscosity) exhibits smaller (increased) values than
TIP4P/2005 and experiments. However, rescaling the temperature with respect to
the triple point temperature as in a corresponding states plot we find
TIP4P/Ice compares very well with TIP4P/2005 and to experiment. Such
observations allow us to infer that despite the different original purposes of
these two models examined here, one can benefit from a vast number of reports
regarding the behavior of transport coefficients for the TIP4P/2005 model and
utilize them following the routine described in this paper.
