Hi again,
Barry recalled responding to a similar question in an email and I have not yet put it up on his website, so here are two paragraphs from his email to someone else asking similar questions. I hope they help:
As far as the abundance of elements is concerned, there are several anomalies existing with current BB theory. Gamow originally proposed the building up of all elements in his BB scenario. However a blockage was found in that process which was difficult to overcome. As a result, Hoyle, Burbidge, and Fowler examined the possibility of elements being built up within stars, which later exploded and spread them out among the intergalactic clouds. This proposal is now generally accepted. However, it leads to a number of problems, such as the anomalous abundance of iron in the regions around quasars. There are other problems, such as anomalous groups of stars near the center of our galaxy and the Andromeda galaxy which have high metal abundances. Because of the current approach using the production of these elements in the first generation of stars, this process obviously takes time. As a consequence, these anomalous stars can only be accounted for by collisions or cannibalization of smaller star systems by larger galaxies. There is another possible answer, however, which creationists need to consider. It has been shown that in a scenario with small black holes, such as Planck particles, the addition of a proton to the system or to a system with a negatively-charged black hole, the build-up of elements becomes possible. The blockage that element formation in stars was designed to overcome is eliminated, because neutrons can also be involved, as can alpha particles. As a consequence, is it possible to build up other elements than hydrogen and helium in the early phases of the universe. This may happen in local concentrations where negative black holes formed by the agglomeration of Planck Particles exist. Stars that form in those areas would then have apparently anomalous metal abundances. Importantly, in this scenario, if Population II stars were formed on Day 1 of Creation Week, as suggested by Job 38, and Population I stars were formed half-way through day 4, as listed in Genesis 1:14, we have a good reason why the Population I stars contain more metals than the Population II stars, as this process from the agglomeration of black holes would have had time to act.
Regarding distance and age of galaxies: There is no argument that distance indicates age. This should be stated first. It was this very fact that the further out we looked, the more different the universe appeared, that caused the downfall of the Steady State model. Specifically, it was the discovery of quasars that produced this result. Importantly, quasars become brighter and more numerous the further out we look. At a redshift of around 1.7, their numbers and luminosity appear to plateau. Closer in from 1.7, their numbers and intensity decline. Furthermore, a redshift of 1.7 is also an important marker for the formation of stars. We notice starburst galaxies of increasing activity as we go back to a redshift of 1.7. At that point, star formation activity appears to reach a maximum where young, hot blue stars of Population I are being formed (therefore emitting higher amounts of UV radiation). At a redshift of 1.7, the redshift/distance relationship also undergoes a major change. The curve steepens up considerably as we go back from that point. This has caused current BB thinking to introduce some extra terms into their equations which would indicate that the rate of expansion of the cosmos has speeded up as we come forward in time from that point. On the lightspeed scenario, a redshift of 1.7 effectively marks the close of Creation Week, and so all of these above effects would be expected to taper off after that time.
As far as the black hole in the center of our Milky Way Galaxy, we see it as it is NOW. When we look out in space, we can see the way things WERE. This is pretty different! There is no reason to assume our black hole was any different from what we are seeing 'out there.'
from Barry: Initially, the black holes were so energetic that the quasars associated with them were even more brilliant than some of the most energtic quasars we see closer in. The figure that was used in the calculation for the energy of a quasar is for one of the quasars nearer to us than those on the frontiers of the cosmos. There, the quasars are over a hundred times more luminous than those closer in, and so this has to be factored into the calculation. The calculation itself is correct; it is just the wrong figure that is being used.
Barry recalled responding to a similar question in an email and I have not yet put it up on his website, so here are two paragraphs from his email to someone else asking similar questions. I hope they help:
As far as the abundance of elements is concerned, there are several anomalies existing with current BB theory. Gamow originally proposed the building up of all elements in his BB scenario. However a blockage was found in that process which was difficult to overcome. As a result, Hoyle, Burbidge, and Fowler examined the possibility of elements being built up within stars, which later exploded and spread them out among the intergalactic clouds. This proposal is now generally accepted. However, it leads to a number of problems, such as the anomalous abundance of iron in the regions around quasars. There are other problems, such as anomalous groups of stars near the center of our galaxy and the Andromeda galaxy which have high metal abundances. Because of the current approach using the production of these elements in the first generation of stars, this process obviously takes time. As a consequence, these anomalous stars can only be accounted for by collisions or cannibalization of smaller star systems by larger galaxies. There is another possible answer, however, which creationists need to consider. It has been shown that in a scenario with small black holes, such as Planck particles, the addition of a proton to the system or to a system with a negatively-charged black hole, the build-up of elements becomes possible. The blockage that element formation in stars was designed to overcome is eliminated, because neutrons can also be involved, as can alpha particles. As a consequence, is it possible to build up other elements than hydrogen and helium in the early phases of the universe. This may happen in local concentrations where negative black holes formed by the agglomeration of Planck Particles exist. Stars that form in those areas would then have apparently anomalous metal abundances. Importantly, in this scenario, if Population II stars were formed on Day 1 of Creation Week, as suggested by Job 38, and Population I stars were formed half-way through day 4, as listed in Genesis 1:14, we have a good reason why the Population I stars contain more metals than the Population II stars, as this process from the agglomeration of black holes would have had time to act.
Regarding distance and age of galaxies: There is no argument that distance indicates age. This should be stated first. It was this very fact that the further out we looked, the more different the universe appeared, that caused the downfall of the Steady State model. Specifically, it was the discovery of quasars that produced this result. Importantly, quasars become brighter and more numerous the further out we look. At a redshift of around 1.7, their numbers and luminosity appear to plateau. Closer in from 1.7, their numbers and intensity decline. Furthermore, a redshift of 1.7 is also an important marker for the formation of stars. We notice starburst galaxies of increasing activity as we go back to a redshift of 1.7. At that point, star formation activity appears to reach a maximum where young, hot blue stars of Population I are being formed (therefore emitting higher amounts of UV radiation). At a redshift of 1.7, the redshift/distance relationship also undergoes a major change. The curve steepens up considerably as we go back from that point. This has caused current BB thinking to introduce some extra terms into their equations which would indicate that the rate of expansion of the cosmos has speeded up as we come forward in time from that point. On the lightspeed scenario, a redshift of 1.7 effectively marks the close of Creation Week, and so all of these above effects would be expected to taper off after that time.
As far as the black hole in the center of our Milky Way Galaxy, we see it as it is NOW. When we look out in space, we can see the way things WERE. This is pretty different! There is no reason to assume our black hole was any different from what we are seeing 'out there.'
from Barry: Initially, the black holes were so energetic that the quasars associated with them were even more brilliant than some of the most energtic quasars we see closer in. The figure that was used in the calculation for the energy of a quasar is for one of the quasars nearer to us than those on the frontiers of the cosmos. There, the quasars are over a hundred times more luminous than those closer in, and so this has to be factored into the calculation. The calculation itself is correct; it is just the wrong figure that is being used.