  In this work we present dipole scattering amplitudes, including the
dependence on the impact-parameter, for a variety of nuclear targets of
interest for the electron-ion colliders (EICs) being currently designed. These
amplitudes are obtained by numerically solving the Balitsky-Kovchegov equation
with the collinearly improved kernel. Two different cases are studied: initial
conditions representing the nucleus under consideration and the solutions based
on an initial condition representing a proton complemented by a Glauber-Gribov
prescription to obtain dipole-nucleus amplitudes. We find that the energy
evolution of these two approaches differ. We use the obtained dipole scattering
amplitudes to predict ($i$) nuclear structure functions that can be measured in
deep-inelastic scattering at EICs and ($ii$) nuclear suppression factors that
reveal the energy evolution of shadowing for the different cases we studied. We
compare our predictions with the available data.
