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Quantized redshift anomaly
18 years 10 months ago #13091
by Tommy
Replied by Tommy on topic Reply from Thomas Mandel
<blockquote id="quote"><font size="2" face="Verdana, Arial, Helvetica" id="quote">quote:<hr height="1" noshade id="quote">Originally posted by Jim
I never heard about quantized red shift observations so I'm the dummy here. But, I have just read some stuff that indicates obeservation of this type is not reproduced by anyone and the topic is bogus.<hr height="1" noshade id="quote"></blockquote id="quote"></font id="quote">
Usually it is best to find the original papers which are often quite different from the conventional view.
<center>THE JOURNAL OF THE ROYAL
ASTRONOMICAL SOCIETY OF CANADA
JOURNAL DE LA SOCIÉTÉ ROYALE
D ASTRONOMIE DU CANADA
Vol. 83, No.6 December 1989 Whole No. 621
EDWIN HUBBLE 1889-1953
By Allan Sandage</center>
"...Hubble concluded that his observed log N(m) distribution showed a large departure from Euclidean geometry, provided that the effect of redshifts on the apparent magnitudes was calculated as if the redshifts were due to a real expansion. A different correction is required if no motion exists, the redshifts then being due to an unknown cause. Hubble believed that his count data gave a more reasonable result concerning spatial curvature if the redshift correction was made assuming no recession. To the very end of his writings he maintained this position, favouring (or at the very least keeping open) the model where no true expansion exists, and therefore that the redshift "represents a hitherto unrecognized principle of nature". This viewpoint is emphasized (a) in The Realm of the Nebulae, (b) in his reply (Hubble 1937a) to the criticisms of the 1936 papers by Eddington and by McVittie, and (c) in his 1937 Rhodes Lectures published as The Observational Approach to Cosmology (Hubble 1937b). It also persists in his last published scientific paper which is an account of his Darwin Lecture (Hubble 1953). "
antwrp.gsfc.nasa.gov/diamond_jubilee/1996/sandage_hubble.html
<center>Quantized Galaxy Redshifts
Tifft, William G., and Cocke, W. John; "Quantized Galaxy Redshifts,"
Sky and Telescope, 73:19, 1987.</center>
"The history of science relates many examples where the conventional view ultimately was proved wrong."
Tifft and Cocke begin their article with this sentence. Wisely, they followed with the tale of how vehemently the quantization of the atom was resisted earlier in this century. They were wise because without such a reminder to be open-minded, many astronomers would automatically toss their article in the wastebasket! In fact, when Tifft's first paper on redshift quantization appeared in the Astrophysical Journal, the Editor felt constrained to add a note to the effect that the referees:
"Neither could find obvious errors with the analysis nor felt that they could enthusiastically endorse publication."
Even today, after much more evidence for redshift quantization has accumulated, scientific resistance to the idea is extreme. We shall now see what all this fuss is about.
Tifft first became suspicious that the redshifts of galaxies might be quantized; that is, take on discrete values; when he found that galaxies in the same clusters possessed redshifts that were related to the shapes of the galaxies. The obvious inference was that the redshifts were at least partly dependent upon the galaxy itself rather than entirely upon the galaxy's speed of recession (or distance) from the earth. Then, he found more suggestions of quantization. The redshifts of pairs of galaxies differed by quantized amounts (see figure). More evidence exists for galactic quantization, but this should give the reader a feeling for the conceptual disaster waiting on the wings of astronomy.
Can galaxies, like atoms and mole cules, posses quantized states? And do the findings of Tifft and Cocke undermine the redshift-distance relationship? The answer might be YES; and then all of astronomy and our entire view of the universe and its history would have to be reformulated.
<center>Is the Redshift Really quantized?
Barry Setterfield</center>
A genuine redshift anomaly seems to exist, one that would cause a re-think about cosmological issues if the data are accepted. Let’s look at this for just a moment. As we look out into space, the light from galaxies is shifted towards the red end of the spectrum. The further out we look, the redder the light becomes. The measure of this redshifting of light is given by the quantity z, which is defined as the change in wavelength of a given spectral line divided by the laboratory standard wavelength for that same spectral line. Each atom has its own characteristic set of spectral lines, so we know when that characteristic set of lines is shifted further down towards the red end of the spectrum. This much was noted in the early 1920’s. Around 1929, Hubble noted that the more distant the galaxy was, the greater was the value of the redshift, z. Thus was born the redshift/distance relationship. It came to be accepted as a working hypothesis that z might be a kind of Doppler shift of light because of universal expansion. In the same way that the siren of a police car drops in pitch when it races away from you, so it was reasoned that the redshifting of light might represent the distant galaxies racing away from us with greater velocities the further out they were. The pure number z, then was multiplied by the value of lightspeed in order to change z to a velocity. However, Hubble was discontent with this interpretation. Even as recently as the mid 1960’s Paul Couderc of the Paris Observatory expressed misgivings about the situation and mentioned that a number of astronomers felt likewise. In other words, accepting z as a pure number was one thing; expressing it as a measure of universal expansion was something else.
It is at this point that Tifft’s work enters the discussion. In 1976, William Tifft, an astronomer from Arizona, started examining redshift values. The data indicated that the redshift, z, was not a smooth function but went in a series of jumps. Between successive jumps the redshift remained fixed at the value attained at the last jump. The editor of the Astrophysical Journal who published the first article by Tifft, made a comment in a footnote to the effect that they did not like the idea, but referees could find no basic flaw in the presentation, so publication was reluctantly agreed to. Further data came in supporting z quantisation, but the astronomical community could not generally accept the data because the prevailing interpretation of z was that it represented universal expansion, and it would be difficult to find a reason for that expansion to occur in “jumps”. In 1981 the extensive Fisher-Tully redshift survey was published, and the redshifts were not clustered in the way that Tifft had suggested. But an important development occurred in 1984 when Cocke pointed out that the motion of the Sun and solar system through space had a genuine Doppler shift that added to or subtracted from every redshift in the sky. Cocke pointed out that when this true Doppler effect was removed from the Fisher-Tully observations, there were redshift “jumps” or quantisations globally across the whole sky, and this from data that had not been collected by Tifft. In the early 1990’s Bruce Guthrie and William Napier of Edinburgh Observatory specifically set out to disprove redshift quantisation using the best enlarged example of accurate hydrogen line redshifts. Instead of disproving the z quantisation proposal, Guthrie and Napier ended up in confirming it. The quantisation was supported by a Fourier analysis and the results published around 1995. The published graph showed over 60 successive peaks and troughs of precise redshift quantisations. There could be no doubt about the results. Comments were made in New Scientist, Scientific American and a number of other lesser publications, but generally, the astronomical community treated the results with silence."
Continued at www.setterfield.org/Redshift.htm#new53103
<center>REDSHIFT PERIODICITIES, THE GALAXY-QUASAR CONNECTION
W. G. Tifft
Steward Observatory University of Arizona
Tucson, Arizona 85721
Abstract.</center>
The Lehto-Ti t redshift quantization model is used to predict the redshift distribution for certain classes of quasars, and for galaxies in the neighborhood of z = 0:5. In the Lehto-Ti t model the redshift is presumed to arise from time dependent decay from an origin at the Planck scale; the decay process is a form of period doubling. Looking back in time reveals earlier stages of the process where redshifts should correspond to redictable fractions of the speed of light. Quasar redshift peaks are shown to correspond to the earliest simple fractions of c as predicted by the model. The sharp peaks present in deep eld galaxy redshifts surveys are then shown to correspond to later stages in such a decay process. Highly discordant redshift associations are expected to occur and shown to be present in the deep eld surveys. Peaks in redshift distributions appear to represent the spectrum of possible states at various stage of the decay process rather than physical structures.
<center>1. Introduction</center>
Modern cosmology presumes to understand the cosmic redshift as a simple continuous Doppler-like effect caused by expansion of the Universe. In fact there is considerable evidence indicating that the redshift consists of, or is dominated by, an unexplained effect intrinsic to galaxies and quasars. In this paper we discuss and relate three lines of such evidence including evidence for characteristic peaks in the redshift distribution of quasars,
the issue of associations between objects with widely discordant redshifts, and redshift quantization associated with normal galaxies.
www.ingentaconnect.com/content/klu/astr/...85/00000002/05138613
in the paper:
<center>"Evidemce for Quantization amd Variable Redshifts in the Cosmic Background Rest Frame
W.G.Tifft
Steward Observatory, University of Arizona
Tucson, Arizona
Abstract</center>
Evidence is presented for redshift quantization and variability as detected in global studies done in the rest frame of the cosmic background radiations. Quantization is strong and consistent with predictions derived from concepts associated with multidimensional time. Nine different families of periods are possible but certain ones are more likely to occur...
snip
Introduction: The objective of this paper is to present current evidence for global redshift quantization and to examine some of its properties. By global redshift quantization we mean that the redshifts of homogeneous classes of galaxies from all over the sky contain specific periods when viewed from an appropriate rest frame;
the redshift is not a continuous variable as expected from the standard doppler interpretation..."
Evidence for Quantized and Variable Redshifts in the Cosmic Background Rest Frame , W. G. Tifft, in Modern Mathematical Models of Time and Their Applications to Physics and Cosmology, Kluwer Academic Publishers, Dordrecht, 1997 (1.2M).
public.lanl.gov/alp/plasma/papers.html
<center>Further Evidence for Quantized Intrinsic Redshifts in Galaxies: Is
the Great Attractor a Myth?
M.B. Bell1 and S.P. Comeau1</center>
<center>ABSTRACT</center>
Evidence was presented recently suggesting that the Fundamental Plane (FP) clusters studied in the Hubble Key Project may contain quantized intrinsic redshift components that are related to those reported by Tifft. Here we report the results of a similar analysis using 55 spiral (Sc and Sb) galaxies, and 36 Type Ia supernovae (SnIa) galaxies. We find that even when many more objects are included in the sample there is still clear evidence that the same quantized intrinsic redshifts are present and superimposed on the Hubble flow. We find Hubble constants of Ho = 60.0 and 57.5 km s-1 Mpc-1 for the Sc and Sb galaxies respectively. For the SnIa galaxies we find Ho = 58. These values are considerably lower than the value of Ho=72 reported by the Hubble Key Project, but are good in agreement with the value Ho = 60 found for intermediate redshifts using the Sunyaev-Zel'dovich (SZ) effect. Evidence is also presented that suggests that the presence of unaccounted for intrinsic redshifts may have led us incorrectly to the conclusion that a "great attractor" is needed to explain the velocity data. The 91 galaxies examined here also offer new, independent confirmations of the importance of the redshift increment zf = 0.62.
arxiv.org/PS_cache/astro-ph/pdf/0305/0305112.pdf
<center>A statistical evaluation of anomalous redshift claims
Author: Napier W.M.1
Source: Astrophysics and Space Science, 2003, vol. 285, no. 2, pp. 419-427(9)
Publisher: Kluwer Academic Publishers</center>
<center>Abstract:</center>
Claims that ordinary spiral galaxies and some classes of QSO show periodicity in their redshift distributions are investigated using recent high-precision data and rigorous statistical procedures. The claims are broadly upheld. The periodicites are strong and easily seen by eye in the datasets. Observational, reduction or statistical artefacts do not seem capable of accounting for them.
<center>THE DISTRIBUTION OF REDSHIFTS IN
NEW SAMPLES OF QUASI-STELLAR OBJECTS
G. Burbidge & W.M. Napier
Center for Astrophysics and Space Sciences and Department of Physics, University of California, Mail
Code 0424, San Diego, La Jolla, CA 92093-0424
*Armagh Observatory, College Hill, Armagh, BT61 9DG, U.K.</center>
<center>ABSTRACT</center>
Two new samples of QSOs have been constructed from recent surveys to test the hypothesis that the redshift distribution of bright QSOs is periodic in log(1 + z). The first of these comprises 57 different redshifts among all known close pairs or multiple QSOs, with image separations ¡Â 10¡Ç¡Ç, and the second consists of 39 QSOs selected through their X-ray emission and their proximity to bright comparatively nearby active galaxies. The redshift distributions of the samples are found to exhibit distinct peaks with a periodic separation of ¡&SHY; 0.089 in log(1+z) identical to that claimed in earlier samples but now extended
out to higher redshift peaks z = 2.63, 3.45 and 4.47, predicted by the formula but never seen before. The periodicity is also seen in a third sample, the 78 QSOs of the 3C and 3CR catalogues. It is present in these three datasets at an overall significance level 10-5 - 10-6, and appears not to be explicable by spectroscopic or similar selection effects. Possible nterpretations are briefly discussed.
arxiv.org/PS_cache/astro-ph/pdf/0008/0008026.pdf
I never heard about quantized red shift observations so I'm the dummy here. But, I have just read some stuff that indicates obeservation of this type is not reproduced by anyone and the topic is bogus.<hr height="1" noshade id="quote"></blockquote id="quote"></font id="quote">
Usually it is best to find the original papers which are often quite different from the conventional view.
<center>THE JOURNAL OF THE ROYAL
ASTRONOMICAL SOCIETY OF CANADA
JOURNAL DE LA SOCIÉTÉ ROYALE
D ASTRONOMIE DU CANADA
Vol. 83, No.6 December 1989 Whole No. 621
EDWIN HUBBLE 1889-1953
By Allan Sandage</center>
"...Hubble concluded that his observed log N(m) distribution showed a large departure from Euclidean geometry, provided that the effect of redshifts on the apparent magnitudes was calculated as if the redshifts were due to a real expansion. A different correction is required if no motion exists, the redshifts then being due to an unknown cause. Hubble believed that his count data gave a more reasonable result concerning spatial curvature if the redshift correction was made assuming no recession. To the very end of his writings he maintained this position, favouring (or at the very least keeping open) the model where no true expansion exists, and therefore that the redshift "represents a hitherto unrecognized principle of nature". This viewpoint is emphasized (a) in The Realm of the Nebulae, (b) in his reply (Hubble 1937a) to the criticisms of the 1936 papers by Eddington and by McVittie, and (c) in his 1937 Rhodes Lectures published as The Observational Approach to Cosmology (Hubble 1937b). It also persists in his last published scientific paper which is an account of his Darwin Lecture (Hubble 1953). "
antwrp.gsfc.nasa.gov/diamond_jubilee/1996/sandage_hubble.html
<center>Quantized Galaxy Redshifts
Tifft, William G., and Cocke, W. John; "Quantized Galaxy Redshifts,"
Sky and Telescope, 73:19, 1987.</center>
"The history of science relates many examples where the conventional view ultimately was proved wrong."
Tifft and Cocke begin their article with this sentence. Wisely, they followed with the tale of how vehemently the quantization of the atom was resisted earlier in this century. They were wise because without such a reminder to be open-minded, many astronomers would automatically toss their article in the wastebasket! In fact, when Tifft's first paper on redshift quantization appeared in the Astrophysical Journal, the Editor felt constrained to add a note to the effect that the referees:
"Neither could find obvious errors with the analysis nor felt that they could enthusiastically endorse publication."
Even today, after much more evidence for redshift quantization has accumulated, scientific resistance to the idea is extreme. We shall now see what all this fuss is about.
Tifft first became suspicious that the redshifts of galaxies might be quantized; that is, take on discrete values; when he found that galaxies in the same clusters possessed redshifts that were related to the shapes of the galaxies. The obvious inference was that the redshifts were at least partly dependent upon the galaxy itself rather than entirely upon the galaxy's speed of recession (or distance) from the earth. Then, he found more suggestions of quantization. The redshifts of pairs of galaxies differed by quantized amounts (see figure). More evidence exists for galactic quantization, but this should give the reader a feeling for the conceptual disaster waiting on the wings of astronomy.
Can galaxies, like atoms and mole cules, posses quantized states? And do the findings of Tifft and Cocke undermine the redshift-distance relationship? The answer might be YES; and then all of astronomy and our entire view of the universe and its history would have to be reformulated.
<center>Is the Redshift Really quantized?
Barry Setterfield</center>
A genuine redshift anomaly seems to exist, one that would cause a re-think about cosmological issues if the data are accepted. Let’s look at this for just a moment. As we look out into space, the light from galaxies is shifted towards the red end of the spectrum. The further out we look, the redder the light becomes. The measure of this redshifting of light is given by the quantity z, which is defined as the change in wavelength of a given spectral line divided by the laboratory standard wavelength for that same spectral line. Each atom has its own characteristic set of spectral lines, so we know when that characteristic set of lines is shifted further down towards the red end of the spectrum. This much was noted in the early 1920’s. Around 1929, Hubble noted that the more distant the galaxy was, the greater was the value of the redshift, z. Thus was born the redshift/distance relationship. It came to be accepted as a working hypothesis that z might be a kind of Doppler shift of light because of universal expansion. In the same way that the siren of a police car drops in pitch when it races away from you, so it was reasoned that the redshifting of light might represent the distant galaxies racing away from us with greater velocities the further out they were. The pure number z, then was multiplied by the value of lightspeed in order to change z to a velocity. However, Hubble was discontent with this interpretation. Even as recently as the mid 1960’s Paul Couderc of the Paris Observatory expressed misgivings about the situation and mentioned that a number of astronomers felt likewise. In other words, accepting z as a pure number was one thing; expressing it as a measure of universal expansion was something else.
It is at this point that Tifft’s work enters the discussion. In 1976, William Tifft, an astronomer from Arizona, started examining redshift values. The data indicated that the redshift, z, was not a smooth function but went in a series of jumps. Between successive jumps the redshift remained fixed at the value attained at the last jump. The editor of the Astrophysical Journal who published the first article by Tifft, made a comment in a footnote to the effect that they did not like the idea, but referees could find no basic flaw in the presentation, so publication was reluctantly agreed to. Further data came in supporting z quantisation, but the astronomical community could not generally accept the data because the prevailing interpretation of z was that it represented universal expansion, and it would be difficult to find a reason for that expansion to occur in “jumps”. In 1981 the extensive Fisher-Tully redshift survey was published, and the redshifts were not clustered in the way that Tifft had suggested. But an important development occurred in 1984 when Cocke pointed out that the motion of the Sun and solar system through space had a genuine Doppler shift that added to or subtracted from every redshift in the sky. Cocke pointed out that when this true Doppler effect was removed from the Fisher-Tully observations, there were redshift “jumps” or quantisations globally across the whole sky, and this from data that had not been collected by Tifft. In the early 1990’s Bruce Guthrie and William Napier of Edinburgh Observatory specifically set out to disprove redshift quantisation using the best enlarged example of accurate hydrogen line redshifts. Instead of disproving the z quantisation proposal, Guthrie and Napier ended up in confirming it. The quantisation was supported by a Fourier analysis and the results published around 1995. The published graph showed over 60 successive peaks and troughs of precise redshift quantisations. There could be no doubt about the results. Comments were made in New Scientist, Scientific American and a number of other lesser publications, but generally, the astronomical community treated the results with silence."
Continued at www.setterfield.org/Redshift.htm#new53103
<center>REDSHIFT PERIODICITIES, THE GALAXY-QUASAR CONNECTION
W. G. Tifft
Steward Observatory University of Arizona
Tucson, Arizona 85721
Abstract.</center>
The Lehto-Ti t redshift quantization model is used to predict the redshift distribution for certain classes of quasars, and for galaxies in the neighborhood of z = 0:5. In the Lehto-Ti t model the redshift is presumed to arise from time dependent decay from an origin at the Planck scale; the decay process is a form of period doubling. Looking back in time reveals earlier stages of the process where redshifts should correspond to redictable fractions of the speed of light. Quasar redshift peaks are shown to correspond to the earliest simple fractions of c as predicted by the model. The sharp peaks present in deep eld galaxy redshifts surveys are then shown to correspond to later stages in such a decay process. Highly discordant redshift associations are expected to occur and shown to be present in the deep eld surveys. Peaks in redshift distributions appear to represent the spectrum of possible states at various stage of the decay process rather than physical structures.
<center>1. Introduction</center>
Modern cosmology presumes to understand the cosmic redshift as a simple continuous Doppler-like effect caused by expansion of the Universe. In fact there is considerable evidence indicating that the redshift consists of, or is dominated by, an unexplained effect intrinsic to galaxies and quasars. In this paper we discuss and relate three lines of such evidence including evidence for characteristic peaks in the redshift distribution of quasars,
the issue of associations between objects with widely discordant redshifts, and redshift quantization associated with normal galaxies.
www.ingentaconnect.com/content/klu/astr/...85/00000002/05138613
in the paper:
<center>"Evidemce for Quantization amd Variable Redshifts in the Cosmic Background Rest Frame
W.G.Tifft
Steward Observatory, University of Arizona
Tucson, Arizona
Abstract</center>
Evidence is presented for redshift quantization and variability as detected in global studies done in the rest frame of the cosmic background radiations. Quantization is strong and consistent with predictions derived from concepts associated with multidimensional time. Nine different families of periods are possible but certain ones are more likely to occur...
snip
Introduction: The objective of this paper is to present current evidence for global redshift quantization and to examine some of its properties. By global redshift quantization we mean that the redshifts of homogeneous classes of galaxies from all over the sky contain specific periods when viewed from an appropriate rest frame;
the redshift is not a continuous variable as expected from the standard doppler interpretation..."
Evidence for Quantized and Variable Redshifts in the Cosmic Background Rest Frame , W. G. Tifft, in Modern Mathematical Models of Time and Their Applications to Physics and Cosmology, Kluwer Academic Publishers, Dordrecht, 1997 (1.2M).
public.lanl.gov/alp/plasma/papers.html
<center>Further Evidence for Quantized Intrinsic Redshifts in Galaxies: Is
the Great Attractor a Myth?
M.B. Bell1 and S.P. Comeau1</center>
<center>ABSTRACT</center>
Evidence was presented recently suggesting that the Fundamental Plane (FP) clusters studied in the Hubble Key Project may contain quantized intrinsic redshift components that are related to those reported by Tifft. Here we report the results of a similar analysis using 55 spiral (Sc and Sb) galaxies, and 36 Type Ia supernovae (SnIa) galaxies. We find that even when many more objects are included in the sample there is still clear evidence that the same quantized intrinsic redshifts are present and superimposed on the Hubble flow. We find Hubble constants of Ho = 60.0 and 57.5 km s-1 Mpc-1 for the Sc and Sb galaxies respectively. For the SnIa galaxies we find Ho = 58. These values are considerably lower than the value of Ho=72 reported by the Hubble Key Project, but are good in agreement with the value Ho = 60 found for intermediate redshifts using the Sunyaev-Zel'dovich (SZ) effect. Evidence is also presented that suggests that the presence of unaccounted for intrinsic redshifts may have led us incorrectly to the conclusion that a "great attractor" is needed to explain the velocity data. The 91 galaxies examined here also offer new, independent confirmations of the importance of the redshift increment zf = 0.62.
arxiv.org/PS_cache/astro-ph/pdf/0305/0305112.pdf
<center>A statistical evaluation of anomalous redshift claims
Author: Napier W.M.1
Source: Astrophysics and Space Science, 2003, vol. 285, no. 2, pp. 419-427(9)
Publisher: Kluwer Academic Publishers</center>
<center>Abstract:</center>
Claims that ordinary spiral galaxies and some classes of QSO show periodicity in their redshift distributions are investigated using recent high-precision data and rigorous statistical procedures. The claims are broadly upheld. The periodicites are strong and easily seen by eye in the datasets. Observational, reduction or statistical artefacts do not seem capable of accounting for them.
<center>THE DISTRIBUTION OF REDSHIFTS IN
NEW SAMPLES OF QUASI-STELLAR OBJECTS
G. Burbidge & W.M. Napier
Center for Astrophysics and Space Sciences and Department of Physics, University of California, Mail
Code 0424, San Diego, La Jolla, CA 92093-0424
*Armagh Observatory, College Hill, Armagh, BT61 9DG, U.K.</center>
<center>ABSTRACT</center>
Two new samples of QSOs have been constructed from recent surveys to test the hypothesis that the redshift distribution of bright QSOs is periodic in log(1 + z). The first of these comprises 57 different redshifts among all known close pairs or multiple QSOs, with image separations ¡Â 10¡Ç¡Ç, and the second consists of 39 QSOs selected through their X-ray emission and their proximity to bright comparatively nearby active galaxies. The redshift distributions of the samples are found to exhibit distinct peaks with a periodic separation of ¡&SHY; 0.089 in log(1+z) identical to that claimed in earlier samples but now extended
out to higher redshift peaks z = 2.63, 3.45 and 4.47, predicted by the formula but never seen before. The periodicity is also seen in a third sample, the 78 QSOs of the 3C and 3CR catalogues. It is present in these three datasets at an overall significance level 10-5 - 10-6, and appears not to be explicable by spectroscopic or similar selection effects. Possible nterpretations are briefly discussed.
arxiv.org/PS_cache/astro-ph/pdf/0008/0008026.pdf
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18 years 10 months ago #17091
by Harry
Replied by Harry on topic Reply from Harry Costas
WoW!!!!!!!!!! is the word to explain your writings above.
You are on the right track.
For the last 30 odd years I have been surrounded by cosmoligist and many Professors from well known universities who thought the Big Bang was it. I have been ridiculed and called funny names for those many years. It has made me very happy to see some of these cosmoligists eat their "HUTS" with recent deep field images in the last few years.
Happy New Year
Harry
You are on the right track.
For the last 30 odd years I have been surrounded by cosmoligist and many Professors from well known universities who thought the Big Bang was it. I have been ridiculed and called funny names for those many years. It has made me very happy to see some of these cosmoligists eat their "HUTS" with recent deep field images in the last few years.
Happy New Year
Harry
Please Log in or Create an account to join the conversation.
18 years 10 months ago #14417
by Tommy
Replied by Tommy on topic Reply from Thomas Mandel
Found at
metaresearch.org/msgboard/topic.asp?TOPIC_ID=630
<blockquote id="quote"><font size="2" face="Verdana, Arial, Helvetica" id="quote">quote:<hr height="1" noshade id="quote"><center>'Seeing Red'
by Halton Arp</center>
There is now a fashionable set of beliefs regarding the workings of the universe, greatly publicized as the Big Bang, which I believe is wildly incorrect. But in order to enable people to make their own judgments about this question, we need to examine a large number of observations. Observations in science are the primary and final authority.
More than 10 years have passed and, in spite of determined opposition, I believe the observational evidence has become overwhelming, and the Big Bang has in reality been toppled. There is now a need to communicate the new observations, the connections between objects and the new insights into the workings of the universe - all the primary obligations of academic science, which has generally tried to suppress or ignore such dissident information.
(It makes one wonder, perhaps with profit, whether there are other uncertain assumptions on which much of our lives are built, but of which we are innocently overconfident.)
The present book is sure to outrage many academic scientists. Many of my professional friends will be greatly pained. Why then do I write it? First, everyone has to tell the truth as they see it, especially about important things. The fact that the majority of professionals are intolerant of even opinions which are discordant makes change a necessity. Those friends of mine who also struggle to get the mainstream of astronomy back on track mostly feel that presenting evidence and championing new theories is sufficient to cause change, and that it is improper to criticize an enterprise to which they belong and value highly. I disagree, in that I think if we do not understand why science is failing to self-correct, it will not be possible to fix it.
At this point, I believe we must look for salvation from the non-specialists, amateurs and interdisciplinary thinkers - those who form judgments on the general thrust of the evidence, those who are skeptical about any explanation, particularly official ones, and above all are tolerant of other people's theories. (When the complete answer is not known, in a sense everyone is a crackpot - Gasp!)
If the cause of these redshifts is misunderstood, then distances can be wrong by factors of 10 to 100, and luminosities and masses will be wrong by factors up to 10,000. We would have a totally erroneous picture of extragalactic space, and be faced with one of the most embarrassing boondoggles of our intellectual history.
Because objects in motion in the laboratory, or orbiting double stars, or rotating galaxies all show Doppler redshifts to longer wavelengths when they are receding, it has been assumed throughout astronomy that redshifts always and only mean recession velocity. No direct verification of this assumption is possible, and through the years many contradictions have arisen and been ignored. The evidence presented here is, I hope, convincing because it offers many different proofs of intrinsic (non-velocity) redshifts in every category of celestial object.
It is interesting to note that at first, Einstein felt this solution was incorrect. Later he said it was correct, but of no consequence. Finally he accepted the validity of this solution, but was so unhappy with the fact that it was not a stable solution, i.e., it either collapsed or expanded, that he retained the cosmological constant he had earlier introduced in order to keep the universe static. (This constant was later referred to as the cosmological fudge factor.)
In 1924, Hubble persuaded the world that the "white nebula" were really extragalactic, and a few years later announced that the redshifts of their spectral lines increased as they became fainter. This redshift-apparent magnitude relation for galaxies became known as the Hubble law ( through lack of rigor, often referred to as the redshift-distance relation). At this point Einstein dropped his cosmological constant as a great mistake, and adopted the view that his equations had been telling him all along, that the universe was expanding. Thus was born the Big Bang theory, according to which the entire universe was created instantaneously out of nothing 15 billion years ago.
This really is the entirety of the theory on which our whole concept of cosmology has been rested for the last 75 years. It is interesting to note, however, that Hubble, the observer, even up to his final lecture before the Royal Society, always held open the possibility that the redshift did not mean velocity of recession but might be caused by something else.
In his seminal book Realm of the Nebulae Hubble wrote: "On the other hand, if the interpretation as velocity shifts is abandoned, we find in the redshifts a hitherto unrecognized principle whose implications are unknown."
In the ensuing years the evidence discussed in the present book has built up to the point where it is clear that the velocity interpretation can now be abandoned in favor of a new principle which stands on a firm observational and theoretical foundation.
But of course, the stunning aspect of the ROSAT observations was that two quasars of redshift .63 and .45 are actually physically linked by a luminous connection to a low redshift object of z= .007. When I showed this to the local experts, there were alarmed states followed by annoyance.
This result made it clear that the compact and interacting groups were just a more concentrated ensemble of young, non-equilibrium companion galaxies which had been ejected more recently from the parent galaxy, and were composed of material of higher redshift. Aside from being empirically true, this interpretation solves all the conventional paradoxes of the failure of the galaxies to merge into a single galaxy on a cosmic time scale, and also explains the unbearable presence of "discordant" redshifts.
In later chapters we will show that galaxies and quasars tend to occur at certain preferred redshifts. This quantization implies that galaxies do not evolve with smoothly decreasing redshifts, but change in steps.
One major point of the present book is to try to make it impossible to ignore the enormous amount of mutually supporting significant evidence which all points to the same conclusion.
In the face of 28 years of accumulated evidence, to go on proclaiming that quasars are out at the edge of the universe seems unpardonable.
Summary - Alignments, Quasars, BL Lac's and Galaxy Clusters
1) Objects which appear young are aligned on either side of eruptive objects. This implies ejection of protogalaxies.
2) The youngest objects appear to have the highest redshifts. This implies that intrinsic redshift decreases as the object ages.
3) As distance from the ejecting central object increases, the quasars increase in brightness and decrease in redshift. This implies that the ejected objects evolve as they travel outward.
4) At about z= .3 and about 400 kpc from that parent galaxy the quasars appear to become very bright in optical and X-ray luminosity. This implies there is a transition to BL Lac Objects.
5) Few BL Lac objects are observed implying this phase is short-lived.
6) Clusters of galaxies, many of which are strong X-ray sources, end to appear at comparable distances to the BL Lac's from the parent galaxy. This suggests the clusters may be a result of the breaking up of a BL Lac.
7) Clusters of galaxies in the range z= .4 to .2 contain blue, active galaxies. It is implied that they continue to evolve to higher luminosity and lower redshift.
Abell clusters from z= .01 to .2 lie along ejection lines from galaxies like CenA. Presumably they are evolved products of the ejections.
9) The strings of galaxies which are aligned through the brightest nearby spirals have redshifts z= .01 to .02. Presumably they are the last evolutionary stage of the ejected protogalaxies before they become slightly higher redshift companions of the original ejecting galaxies. (p166-7)
Quantization of Redshifts
The fact that measured values of redshift do not vary continuously but come in steps- certain preferred values- is so unexpected that conventional astronomy has never been able to accept it, in spite of the overwhelming observational evidence. Their problem is simply that if redshifts measure radial components of velocities, then galaxy velocities can be pointed at any angle to us, hence their redshifts must be continuously distributed. For supposed recession velocities of quasars, to measure equal steps in all directions in the sky means we are at the center of a series of explosions. This is an anti-Copernican embarrassment. So a simple glance at the evidence discussed in this Chapter shows that extragalactic astronomy and Big Bang theory is swept away. (p195)
On the theoretical front it has become more persuasive that particle masses determine intrinsic redshifts and that these change with cosmic age. Therefore episodic creation of matter will imprint redshift steps on objects created at different epochs. In addition it appears increasingly useful to view particle masses to be communicated by wave like carriers in a Machian universe. Therefore the possibility of beat frequencies, harmonics, interference and evolution through resonant states is opened up. (p195)
My attitude toward this result is that in a Machian universe there must be some signal carrier for inertial mass coming from distant galaxies. (p202)
In the phenomena of quantization, we have a connection from the redshifts of the quasars, to the redshifts of the galaxies, to the properties of the solar system and finally to the properties of fundamental particles like the electrons. The quantization of physical parameters would seem to be governed by the laws of non-local physics, i.e. like quantum mechanics in which the fundamental parameter appears to be time- for example the repetition rate of a spinning electron. It is clear that we are not running out of problems to solve. In fact, contrary to some rumors that we are reaching an end to physics, the more we learn the more primitive our previous understanding appears, and the more challenging the problems become. (p223)
On Academia and 'Belief' in Scientific Theories
After about 45 years, I now know that if the academic theoreticians at that time had not forced his observations into fashionable molds, we might at least not have started off modern cosmology with the wrong fundamental assumption. We could be much further along in understanding our relation to a much larger, older universe - a universe which is continually unfolding from many points within itself.
..the problem is pervasive throughout astronomy and, contrary to its projected image, endemic throughout most of current science. Scientists, particularly at the most prestigious institutions, regularly suppress and ridicule findings which contradict their current theories and assumptions.
One thing has been accomplished, though I now understand what should be called the statistics of nihilism. It can be reduced to a very simple axiom: "No matter how many times something new has been observed, it cannot be believed until it has been observed again."
In view of all the other evidence known to show that quasars, and 3C273 in particular, belonged to the Virgo Cluster, I gloomily came to the ironic conclusion that if you take a highly intelligent person and give them the best possible, elite education, then you will most likely wind up with an academic who is completely impervious to reality.
I had long ago learned that colloquia were events of intense social pressure, and that comments from the floor which questioned the assumptions of the speaker and were not explainable in a few sentences were neither understood nor welcome.
The greatest mistake in my opinion, and the one we continually make, is to let the theory guide the model. After a ridiculously long time it has finally dawned on me that establishment scientists actually proceed on the belief that theories tell you what is true and what is not true! Of course that is absurd - observations and experiments describe objects that exist- they cannot be "right" or "wrong". Theory is just a language that can be used to discuss and summarize relationships between observations. The model should be completely empirical and tell us what relationships between fundamental properties are required.
This is the kind of theory we are looking for - simple, capable of being visualized- one that can connect together the puzzling observational facts that presently confound understanding. It seems to me that this should be the working hypothesis that is useful in opening up new directions of investigation until further paradoxes are encountered. We are certainly not at the end of science. Most probably we are just at the beginning!
In 1964, Fred Hoyle and Jayant Narlikar proposed a theory of gravitation (I would now prefer to call it a theory of mass) which had its origin in Mach's principle. According to this theory every particle in the universe derives its inertia from the rest of the particles in the universe. Imagine an electron just born into the universe before it has time to "see" any other particles in its vicinity. It has zero mass because there is nothing to operationally measure it against. As time goes on it receives signals from a volume of space that enlarges at the velocity of light, and contains larger and larger numbers of particles. Its mass grows in proportion to the number and strength of the signals it receives.
But in a very fundamental sense, the Machian physics which we depend on to fit the observations- that is what bridges the gap between classical dynamics and quantum mechanics. Because the particle "feels" the mass with which it communicates inside its light horizon, it is in contact through an electromagnetic wave whose particle aspect materializes and dematerializes like a quantum.
Cosmologically, the physics that assumes particle masses constant with time is not valid. What goes on in the rest of the universe affects what happens everywhere else. In addition to the pictures they form in their minds,
I think it is very important for humans to realize that the fundamental particles that make up their bodies and brains, and thus they themselves, are in some ill understood way in continual contact with the rest of the universe.
<hr height="1" noshade id="quote"></blockquote id="quote"></font id="quote">
<blockquote id="quote"><font size="2" face="Verdana, Arial, Helvetica" id="quote">quote:<hr height="1" noshade id="quote"><center>'Seeing Red'
by Halton Arp</center>
There is now a fashionable set of beliefs regarding the workings of the universe, greatly publicized as the Big Bang, which I believe is wildly incorrect. But in order to enable people to make their own judgments about this question, we need to examine a large number of observations. Observations in science are the primary and final authority.
More than 10 years have passed and, in spite of determined opposition, I believe the observational evidence has become overwhelming, and the Big Bang has in reality been toppled. There is now a need to communicate the new observations, the connections between objects and the new insights into the workings of the universe - all the primary obligations of academic science, which has generally tried to suppress or ignore such dissident information.
(It makes one wonder, perhaps with profit, whether there are other uncertain assumptions on which much of our lives are built, but of which we are innocently overconfident.)
The present book is sure to outrage many academic scientists. Many of my professional friends will be greatly pained. Why then do I write it? First, everyone has to tell the truth as they see it, especially about important things. The fact that the majority of professionals are intolerant of even opinions which are discordant makes change a necessity. Those friends of mine who also struggle to get the mainstream of astronomy back on track mostly feel that presenting evidence and championing new theories is sufficient to cause change, and that it is improper to criticize an enterprise to which they belong and value highly. I disagree, in that I think if we do not understand why science is failing to self-correct, it will not be possible to fix it.
At this point, I believe we must look for salvation from the non-specialists, amateurs and interdisciplinary thinkers - those who form judgments on the general thrust of the evidence, those who are skeptical about any explanation, particularly official ones, and above all are tolerant of other people's theories. (When the complete answer is not known, in a sense everyone is a crackpot - Gasp!)
If the cause of these redshifts is misunderstood, then distances can be wrong by factors of 10 to 100, and luminosities and masses will be wrong by factors up to 10,000. We would have a totally erroneous picture of extragalactic space, and be faced with one of the most embarrassing boondoggles of our intellectual history.
Because objects in motion in the laboratory, or orbiting double stars, or rotating galaxies all show Doppler redshifts to longer wavelengths when they are receding, it has been assumed throughout astronomy that redshifts always and only mean recession velocity. No direct verification of this assumption is possible, and through the years many contradictions have arisen and been ignored. The evidence presented here is, I hope, convincing because it offers many different proofs of intrinsic (non-velocity) redshifts in every category of celestial object.
It is interesting to note that at first, Einstein felt this solution was incorrect. Later he said it was correct, but of no consequence. Finally he accepted the validity of this solution, but was so unhappy with the fact that it was not a stable solution, i.e., it either collapsed or expanded, that he retained the cosmological constant he had earlier introduced in order to keep the universe static. (This constant was later referred to as the cosmological fudge factor.)
In 1924, Hubble persuaded the world that the "white nebula" were really extragalactic, and a few years later announced that the redshifts of their spectral lines increased as they became fainter. This redshift-apparent magnitude relation for galaxies became known as the Hubble law ( through lack of rigor, often referred to as the redshift-distance relation). At this point Einstein dropped his cosmological constant as a great mistake, and adopted the view that his equations had been telling him all along, that the universe was expanding. Thus was born the Big Bang theory, according to which the entire universe was created instantaneously out of nothing 15 billion years ago.
This really is the entirety of the theory on which our whole concept of cosmology has been rested for the last 75 years. It is interesting to note, however, that Hubble, the observer, even up to his final lecture before the Royal Society, always held open the possibility that the redshift did not mean velocity of recession but might be caused by something else.
In his seminal book Realm of the Nebulae Hubble wrote: "On the other hand, if the interpretation as velocity shifts is abandoned, we find in the redshifts a hitherto unrecognized principle whose implications are unknown."
In the ensuing years the evidence discussed in the present book has built up to the point where it is clear that the velocity interpretation can now be abandoned in favor of a new principle which stands on a firm observational and theoretical foundation.
But of course, the stunning aspect of the ROSAT observations was that two quasars of redshift .63 and .45 are actually physically linked by a luminous connection to a low redshift object of z= .007. When I showed this to the local experts, there were alarmed states followed by annoyance.
This result made it clear that the compact and interacting groups were just a more concentrated ensemble of young, non-equilibrium companion galaxies which had been ejected more recently from the parent galaxy, and were composed of material of higher redshift. Aside from being empirically true, this interpretation solves all the conventional paradoxes of the failure of the galaxies to merge into a single galaxy on a cosmic time scale, and also explains the unbearable presence of "discordant" redshifts.
In later chapters we will show that galaxies and quasars tend to occur at certain preferred redshifts. This quantization implies that galaxies do not evolve with smoothly decreasing redshifts, but change in steps.
One major point of the present book is to try to make it impossible to ignore the enormous amount of mutually supporting significant evidence which all points to the same conclusion.
In the face of 28 years of accumulated evidence, to go on proclaiming that quasars are out at the edge of the universe seems unpardonable.
Summary - Alignments, Quasars, BL Lac's and Galaxy Clusters
1) Objects which appear young are aligned on either side of eruptive objects. This implies ejection of protogalaxies.
2) The youngest objects appear to have the highest redshifts. This implies that intrinsic redshift decreases as the object ages.
3) As distance from the ejecting central object increases, the quasars increase in brightness and decrease in redshift. This implies that the ejected objects evolve as they travel outward.
4) At about z= .3 and about 400 kpc from that parent galaxy the quasars appear to become very bright in optical and X-ray luminosity. This implies there is a transition to BL Lac Objects.
5) Few BL Lac objects are observed implying this phase is short-lived.
6) Clusters of galaxies, many of which are strong X-ray sources, end to appear at comparable distances to the BL Lac's from the parent galaxy. This suggests the clusters may be a result of the breaking up of a BL Lac.
7) Clusters of galaxies in the range z= .4 to .2 contain blue, active galaxies. It is implied that they continue to evolve to higher luminosity and lower redshift.
Abell clusters from z= .01 to .2 lie along ejection lines from galaxies like CenA. Presumably they are evolved products of the ejections.
9) The strings of galaxies which are aligned through the brightest nearby spirals have redshifts z= .01 to .02. Presumably they are the last evolutionary stage of the ejected protogalaxies before they become slightly higher redshift companions of the original ejecting galaxies. (p166-7)
Quantization of Redshifts
The fact that measured values of redshift do not vary continuously but come in steps- certain preferred values- is so unexpected that conventional astronomy has never been able to accept it, in spite of the overwhelming observational evidence. Their problem is simply that if redshifts measure radial components of velocities, then galaxy velocities can be pointed at any angle to us, hence their redshifts must be continuously distributed. For supposed recession velocities of quasars, to measure equal steps in all directions in the sky means we are at the center of a series of explosions. This is an anti-Copernican embarrassment. So a simple glance at the evidence discussed in this Chapter shows that extragalactic astronomy and Big Bang theory is swept away. (p195)
On the theoretical front it has become more persuasive that particle masses determine intrinsic redshifts and that these change with cosmic age. Therefore episodic creation of matter will imprint redshift steps on objects created at different epochs. In addition it appears increasingly useful to view particle masses to be communicated by wave like carriers in a Machian universe. Therefore the possibility of beat frequencies, harmonics, interference and evolution through resonant states is opened up. (p195)
My attitude toward this result is that in a Machian universe there must be some signal carrier for inertial mass coming from distant galaxies. (p202)
In the phenomena of quantization, we have a connection from the redshifts of the quasars, to the redshifts of the galaxies, to the properties of the solar system and finally to the properties of fundamental particles like the electrons. The quantization of physical parameters would seem to be governed by the laws of non-local physics, i.e. like quantum mechanics in which the fundamental parameter appears to be time- for example the repetition rate of a spinning electron. It is clear that we are not running out of problems to solve. In fact, contrary to some rumors that we are reaching an end to physics, the more we learn the more primitive our previous understanding appears, and the more challenging the problems become. (p223)
On Academia and 'Belief' in Scientific Theories
After about 45 years, I now know that if the academic theoreticians at that time had not forced his observations into fashionable molds, we might at least not have started off modern cosmology with the wrong fundamental assumption. We could be much further along in understanding our relation to a much larger, older universe - a universe which is continually unfolding from many points within itself.
..the problem is pervasive throughout astronomy and, contrary to its projected image, endemic throughout most of current science. Scientists, particularly at the most prestigious institutions, regularly suppress and ridicule findings which contradict their current theories and assumptions.
One thing has been accomplished, though I now understand what should be called the statistics of nihilism. It can be reduced to a very simple axiom: "No matter how many times something new has been observed, it cannot be believed until it has been observed again."
In view of all the other evidence known to show that quasars, and 3C273 in particular, belonged to the Virgo Cluster, I gloomily came to the ironic conclusion that if you take a highly intelligent person and give them the best possible, elite education, then you will most likely wind up with an academic who is completely impervious to reality.
I had long ago learned that colloquia were events of intense social pressure, and that comments from the floor which questioned the assumptions of the speaker and were not explainable in a few sentences were neither understood nor welcome.
The greatest mistake in my opinion, and the one we continually make, is to let the theory guide the model. After a ridiculously long time it has finally dawned on me that establishment scientists actually proceed on the belief that theories tell you what is true and what is not true! Of course that is absurd - observations and experiments describe objects that exist- they cannot be "right" or "wrong". Theory is just a language that can be used to discuss and summarize relationships between observations. The model should be completely empirical and tell us what relationships between fundamental properties are required.
This is the kind of theory we are looking for - simple, capable of being visualized- one that can connect together the puzzling observational facts that presently confound understanding. It seems to me that this should be the working hypothesis that is useful in opening up new directions of investigation until further paradoxes are encountered. We are certainly not at the end of science. Most probably we are just at the beginning!
In 1964, Fred Hoyle and Jayant Narlikar proposed a theory of gravitation (I would now prefer to call it a theory of mass) which had its origin in Mach's principle. According to this theory every particle in the universe derives its inertia from the rest of the particles in the universe. Imagine an electron just born into the universe before it has time to "see" any other particles in its vicinity. It has zero mass because there is nothing to operationally measure it against. As time goes on it receives signals from a volume of space that enlarges at the velocity of light, and contains larger and larger numbers of particles. Its mass grows in proportion to the number and strength of the signals it receives.
But in a very fundamental sense, the Machian physics which we depend on to fit the observations- that is what bridges the gap between classical dynamics and quantum mechanics. Because the particle "feels" the mass with which it communicates inside its light horizon, it is in contact through an electromagnetic wave whose particle aspect materializes and dematerializes like a quantum.
Cosmologically, the physics that assumes particle masses constant with time is not valid. What goes on in the rest of the universe affects what happens everywhere else. In addition to the pictures they form in their minds,
I think it is very important for humans to realize that the fundamental particles that make up their bodies and brains, and thus they themselves, are in some ill understood way in continual contact with the rest of the universe.
<hr height="1" noshade id="quote"></blockquote id="quote"></font id="quote">
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18 years 10 months ago #16850
by Harry
Replied by Harry on topic Reply from Harry Costas
Tommy your information is fantastic!
But! most people will be lost in the writing.
If you can help us by, fewer words telling us what you want to say.
Smile
My reading skills have improved.
So! your saying that the red shift does not give us accurate distances and so the expansion of the universe is not correct.
Harry
But! most people will be lost in the writing.
If you can help us by, fewer words telling us what you want to say.
Smile
My reading skills have improved.
So! your saying that the red shift does not give us accurate distances and so the expansion of the universe is not correct.
Harry
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18 years 10 months ago #16853
by Tommy
Replied by Tommy on topic Reply from Thomas Mandel
It is very simple.
"I" do not see collaspe. I believe if the Universe were a collasping Universe we would see it.
I see emergence. I see a Universe that is emerging right now.
"MY" evidence is the flow of matter in a galaxy. A collasping Universe says that matter is flowing into a galaxy. I don't see that. I see matter emerging out of a galaxy.
As far as what do they say? They say that matter is flowing out of the center of a galaxy too. They say this is happening because matter is collasping into the center.
clever
"I" do not see collaspe. I believe if the Universe were a collasping Universe we would see it.
I see emergence. I see a Universe that is emerging right now.
"MY" evidence is the flow of matter in a galaxy. A collasping Universe says that matter is flowing into a galaxy. I don't see that. I see matter emerging out of a galaxy.
As far as what do they say? They say that matter is flowing out of the center of a galaxy too. They say this is happening because matter is collasping into the center.
clever
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18 years 10 months ago #16858
by Harry
Replied by Harry on topic Reply from Harry Costas
Hello Tommy
All observations show material going towards the centre of the galaxy. There is other blackholes throught the galaxie which also collect matter.
We also observe material being ejected from Black Holes. Not to speak of Exploding stars and neutron stars and so on.
How did you get the idea that galaxies only eject material?
That means nothing from nothing,,,,,,,,does not work
Harry
All observations show material going towards the centre of the galaxy. There is other blackholes throught the galaxie which also collect matter.
We also observe material being ejected from Black Holes. Not to speak of Exploding stars and neutron stars and so on.
How did you get the idea that galaxies only eject material?
That means nothing from nothing,,,,,,,,does not work
Harry
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