No miracle needed, David. Just Narlikar's solution to the equation of General Relativity. The one where he did NOT assume mass had to be constant since the moment of creation, unlike what the standard model solution ASSUMED. You remember me posting about that, don't you? You know who he is, don't you? Or did you just make no effort whatsoever to read and understand it? Arp's theories are perfectly in line with Narlikar's solution ... which allow for matter creation, the gaining of mass by created matter and high redshifts that gradually decrease.
Here's a source expanding on Arp's theory, which David so quickly dismisses:
http://adsabs.harvard.edu/cgi-bin/n...J...496..661A&db_key=AST&high=3f8faa7acf02026 "The Origin of Companion Galaxies, by Halton Arp, Astrophysical Journal v.496, p.661, 1998 "Evidence that companion galaxies are located along the minor axes of large disk galaxies is reviewed. It is reported here that quasars also tend to be preferentially aligned along the minor axes of active disk galaxies. Empirically there is a continuity of physical properties which suggests that the intrinsic redshifts of quasars decay as they evolve into more normal galaxies. The coincident alignment of companion galaxies plus their systematically higher redshifts then both become confirmation of their evolution from quasars which have been previously ejected along the minor axes of active spiral galaxies. The quantization of the redshifts of companions also supports their evolutionary origin from the quantized, intrinsic, quasar redshifts."
In any case, Arp observes that high-redshift objects are aligned on either side of low-redshift active nucleus galaxies. As distance from the active galaxy increases, the objects decrease in redshift. The objects also tend to increase in brightness and to slow down with distance. He claims this implies that those objects are gaining mass as they age. He claims that at about z = .3 and about 400 kiloparsec from the parent galaxy BL Lac objects appear. They are rare, highly variable, and very bright in optical and X-ray luminosity. Some show evidence of star formation, which quasars do not. He says this implies that they are a transition from the compact quasar phase to a galaxy phase. Clusters of galaxies, many of which are strong X-ray sources, tend to appear at comparable distances to the BL Lac's from the parent galaxy. According to Arp, this implies that the clusters are the result of the breaking up of a BL Lac. Clusters of galaxies in the range z = .4 to .2 contain blue, active galaxies. Arp asserts this implies that galaxies continue to evolve to higher luminosity and lower redshift. He claims Abell galaxy clusters from z = .01 to .2 lie along ejection lines from galaxies like Centaurus A and that this implies that they too are the evolved products of the ejections. The strings of galaxies which are aligned through the brightest nearby spirals have redshifts z = .01 to .02. To Arp, this implies that they are the last stage of the ejection of quasars and their evolution into slightly higher-redshift companions of the original ejecting galaxies.
Here's an graphic of his proposed evolution of galaxies:
http://www.holoscience.com/news/img/Galaxy evolution.jpg
(From "Seeing Red" by Halton Arp, 1998)
Don't you remember my posting the case of galaxy NGC 7603 where 3 much smaller, relatively high redshift objects are seen strung along a low redshift plasma filament coming from a similarly low redshift galaxy? Here is a link to an image of that curious alignment:
http://www.haltonarp.com/articles/research_with_Fred/illustrations/figure_1_b.jpg
Two astronomers wrote several peer reviewed papers (for example, López-Corredoira, Martin and Carlos M. Gutiérrez (2002), “Two Emission Line Objects with z>0.2 in the Optical Filament Apparently Connecting the Seyfert Galaxy NGC 7603 to Its Companion,” Astronomy and Astrophysics) where they concluded, based on Hubble Telescope observations that the three objects
are small compact galaxies. I won't dispute that ... afterall, that just makes the Big Bang redshift problem larger than just an inconsistency in the quasar data, like you want folks to believe. Indeed, the two astronomers say the two objects along the filament are highly unusual dwarf HII galaxies
whose light characteristics may themselves be suggestive of a non-cosmological explanation for redshift. In addition, they note that the HII galaxy closest to NGC 7603 is "warped towards NGC 7603" and the other has a faint tail that "could indicate that the material in the filament interacts with the galaxies." They state that the probability of the alignment of all three galaxies on the filament is about 3 x 10^^-9. The authors conclude that
"everything points to the four objects being connected among themselves". So it would appear the problem is definitely more than just one involving quasars, David. Right? Or do you have an explanation you'd like to offer for this data point?
Furthermore, contrary to what you want folks to believe, it's not just a matter of comparing redshifts between QSOs and nearby galaxies or their just being in "proximity" to galaxies. QSO's that are in the vicinity often seem to be unusually aligned with certain features of those galaxies.
For example, the paper at
http://www.aanda.org/index.php?opti...articles/aa/full/2002/33/aah3558/aah3558.html by Arp, et. al. discusses a low redshift (Z = .0028) galaxy, NGC 3628, surrounded by numerous high redshift quasars. NGC 3628 has an active nucleus with HI plumes emerging in both directions on the minor axis sides. The following image
http://www.eitgaastra.nl/pl/f54a.gif
shows the location of some of the quasars relative to the galaxy. According to the above paper, there are three quasars (z = 1.94, 2.43 and 0.408) at the base of the east-north-east plume, coincident with the start of an optical jet. Two more quasars, with z = 2.06 and 1.46, align along what looks to be the opposite side major axis. Three more quasars lie in the southern plume along the minor axis with z = 0.995, 2.15. 1.75. There is candidate quasar called Wee 49 which is the object labeled A near the Z = 1.75 quasar. It has a redshift of Z = 1.70. Both of these lie along a thickening of the plume. According to the paper, Wee 49 lies right at the tip of the southern HI plume. The article concludes "these quasars are not only aligned with the plumes, but positioned along contour nodes. This is strongly indicative of physical association, and implies that these quasars and HI plumes have come out of NGC 3628 in the same physical process." There are also narrow x-ray filaments coming from the galaxy on the minor axis sides. The authors state that the location of the z = 2.15 quasar is at the very tip of one x-ray filament and that alone has a probability of 2 x 10^^-4. The next quasar in toward the nucleus is at z = 0.995 and it is centered on the x-ray filament as well. Notice that at a slightly greater distance on the opposite minor axis side of the galaxy from the Z = 0.995 quasar is a quasar of Z = 0.984. The authors note that "These redshifts are closely matched - a characteristic of many previous pairs of quasars across active galaxies - and demonstrate how unlikely it is that they are unassociated background objects."
Now consider the improbability of so many chance alignments in just the above case. So many quasars clustered around a particular galaxy rather than more uniformly distributed. Alignments with other quasars, with plumes, with optical jets, with x-ray filaments, with the minor axis, and with the major axis. The chance of this just happening by accident has to be very, very small. Yet, Big Bang proponents like David insist that all these alignments are just pure chance, even though Arp and others have provided dozens of similar examples where groups of quasars (and other objects) are aligned with the minor axis of low redshift galaxies or with some other prominent feature of those galaxies.
Even more interesting, it appears the redshift of quasars tends to decrease as one moves out from the core of the galaxies to which they seem to be associated. The Arp and Russel paper has numerous examples of this and I have posted images from a few other cases ... for instance, NGC 7603 and NGC 3628, mentioned above. Here's still another ... six quasars aligned along the minor axis of NGC 3516 with redshifts decreasing as one moves away from the galaxy. Here is a link to a diagram of that case:
http://www.haltonarp.com/articles/astronomy_by_press_release/illustrations/figure_1.jpg
Yet, Big Bang proponents like David continue to insist that all these alignments are just a matter of pure chance. Time and time again, peer reviewed papers cite extremely low probabilities for these alignments, yet Big Bang cosmologists insist that each is just a chance alignment and that high redshift can only be due to recession at great distance.
And then there is the curious alignment of groups of galaxies (as well as quasars), all at various redshifts and all along an important feature of what would appear to be the major galaxy in the group. Our own Local Group is an example of that.
Here's a 1994 paper by Arp (
http://adsabs.harvard.edu/cgi-bin/n...J...430...74A&db_key=AST&high=40f19ad6db11758) that shows an alignment between galaxies. It states that "the two nearest, best-studied groups of galaxies, the Local Group and the M81 group, are analyzed. It is shown that 22 out of 22 major companions have redshifts that are positive with respect to the dominant galaxy. The chance that this can be an accidental configuration of velocities is only
one in four million. Investigations of more distant groups, including clusters such as Virgo, show that the smaller galaxies characteristically have systematically positive redshifts with respect to the larger ones. No selection effects or contamination are capable of avoiding this result."
Here's an image of this Local Group alignment
http://www.thunderbolts.info/tpod/2005/images05/051104localgroup.jpg
from
http://www.thunderbolts.info/tpod/2005/arch05/051104localgroup.htm where it is discussed thus: "The Local Group, of which our Milky Way is a member, stretches in a line along the minor axis of M31, the Andromeda galaxy, which is the dominant galaxy in the group. In the image above, the filled circles mark the locations of accepted members. Open circles and plus signs mark the locations of higher-redshift dwarf and spiral galaxies respectively. (Although in other clusters similar dwarfs and spirals are accepted as companions of the larger galaxies, these dwarfs and spirals are excluded because their systematically higher redshifts are too obvious.) Redshifts of several objects are printed beside their names. Long-exposure photographs of this area reveal a cloud of low-luminosity material extending along this line of galaxies and engulfing them. That the higher-redshift galaxies are not “background objects” is shown by their interaction with the cloud: The interacting pair of galaxies, NGC935/IC1801, have a semicircle of brighter material around them. NGC918 has a jet that ends in a bright region of the cloud. The high-redshift radio galaxy, 3C120, is most famous for its “faster-than-light” jet. Astronomers have measured the movements of knots of material in the jet. If the galaxy is located where the redshift-equals-distance theory dictates, the knots would have to be traveling six times the speed of light. But if 3C120 is a member of the Local Group, the knots would be traveling at only four percent of the speed of light. Not shown in the diagram are the line of quasars extending across M33 and the cluster of quasars close around 3C120. In addition, low surface brightness galaxies, with redshifts between .015 and .018, cluster around these two galaxies."
Here's another article,
http://xxx.lanl.gov/abs/astro-ph/0510654, by different authors that seems to corroborate the existence of this alignment. So far, Big Bang proponents like David have mostly just ignored these observations, probably because they have no logical explanation for them either. Their standard response seems to be that all unlikely alignments in the universe must be coincidence.