Astronomer Mike Hawkins from the Royal Observatory in Edinburgh came to this conclusion after looking at nearly 900 quasars over periods of up to 28 years. When comparing the light patterns of quasars located about 6 billion light years from us and those located 10 billion light years away, he was surprised to find that the light signatures of the two samples were exactly the same. If these quasars were like the previously observed supernovae, an observer would expect to see longer, “stretched” timescales for the distant, “stretched” high-redshift quasars. But even though the distant quasars were more strongly redshifted than the closer quasars, there was no difference in the time it took the light to reach Earth.
As Hawkins explains, most physicists predict that dark matter consists of undiscovered subatomic particles rather than primordial black holes.
that sounds like aether to me (a rose by any other name...)
So, eventually I expect the expansion theory will be done away with and redshift will no longer be considered a measure of recession velocity, and there will be very little mention of the folks who have been trying to get those points across for decades. It will be another great accomplishment of the usual suspects.
A few voices who's main objective is to find some truth that results in a better screw driver (mo' money) might lead to some righting of the path.
Astronomer Mike Hawkins from the Royal Observatory in Edinburgh came to this conclusion after looking at nearly 900 quasars over periods of up to 28 years. When comparing the light patterns of quasars located about 6 billion light years from us and those located 10 billion light years away, he was surprised to find that the light signatures of the two samples were exactly the same. If these quasars were like the previously observed supernovae, an observer would expect to see longer, “stretched” timescales for the distant, “stretched” high-redshift quasars. But even though the distant quasars were more strongly redshifted than the closer quasars, there was no difference in the time it took the light to reach Earth.
There’s also a possibility that the explanation could be even more far-reaching, such as that the universe is not expanding and that the big bang theory is wrong.
Astronomer Mike Hawkins from the Royal Observatory in Edinburgh came to this conclusion after looking at nearly 900 quasars over periods of up to 28 years. When comparing the light patterns of quasars located about 6 billion light years from us and those located 10 billion light years away, he was surprised to find that the light signatures of the two samples were exactly the same.
"Theyre already very old," explained Patrick McCarthy, a co-principal investigator on the study from the Observatories of the Carnegie Institution. "In fact, theyre ancient."
"Its probably not at the point where we have to reevaluate our theories of galaxy formation, but its getting there."
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