We present a simplified analysis using equations for the charge flow, which include v(e) capture, for the production of r-process nuclei in the context of the recent supernova hot bubble model. The role of v, capture in speeding up the charge flow, particularly at the closed neutron shells, is studied together with the beta flow at freezeout and the effect of neutrino-induced neutron emission on the abundance pattern after freezeout. It is shown that a semiquantitative agreement with the gross solar r-process abundance pattern from the peak at mass number A similar to 130 through the peak at A similar to 195 and up to the region of the actinides can be obtained by a superposition of two distinctive kinds of r-process events. These correspond to a low frequency case L and a high frequency case H, which take into account the low abundance dance of I-129 and the high abundance of Hf-182 in the early solar nebula. The lifetime of Hf-182 (tau(182) approximate to 1.3 x 10(7) yr) associates the events in case H with the most common Type II supernovae. These events would be mainly responsible for the r-process nuclei near and above A similar to 195. They would also make a significant amount of the nuclei between A similar to 130 and 195, including Hf-182, but would make very little I-129. In order to match the solar r-process abundance pattern and to satisfy the I-129 and Hf-182 constraints, the events in case L, which would make the r-process nuclei near A similar to 130 and the bulk of those between A similar to 130 and 195, must occur similar to 10 times less frequently but eject similar to 10-20 times more r-process material in each event. Assuming that all of the supernovae producing r-process nuclei represent a similar overall process, we speculate that the usual neutron star remnants, and hence prolonged ejection of r-process material, are associated with the events in case L. We further speculate that the more frequently occurring events in case H have ejection of other r-process material terminated by black hole formation during the neutrino cooling phase of the protoneutron star. This suggests that there is now an inventory of similar to 5 x 10(8) black holes with masses similar to 1 M. and similar to 5 x 10(7) neutron stars resulting from supernovae in the Galaxy. This r-process model would have little effect on the estimates of the supernova contributions to the non-r-process nuclei.