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xXTheOneRavenXx":1ob08pu8 said:I have to say noblackhole, I do on most occassions disagree with your methods of criticizing people and the theories they believe in. In this instance I have to give the devil his dues. I read this over and it is very well put together. Awesome work on your part. You never attacked anyone, just the mere scientific aspects to contradict the most popular theory. Hence, what this thread is actually asking (Big Bang, or no Big Bang). In your opinion, and after having stated the above; What is your take on how the universe came to exist as we see it today if the Big Bang did not occur? (Just opening the floor for your ideaolgy of the universe). I think your theory may turn out to be quite fascinating. Of course, anything is possible.
xXTheOneRavenXx":2d20tlf6 said:I have found that Crothers and others are not criticized because they criticize the greats of astronomy and science, but rather in other aspects as seen in this equally interesting link http://dealingwithcreationisminastr...06/some-preliminary-comments-on-crothers.html
xXTheOneRavenXx":1ot51mn6 said:As I mentioned noblackhole I like to look at things from both sides of the coin. However as you and I both know observations of distant galaxies and quasars show a redshift. Without the Big Bang theory, how do we explain the redshift?
xXTheOneRavenXx":1ot51mn6 said:Both Friedmann & Lemaitre utilized General Relativity to predict the universal expansion before Hubble's observations.
Definately not examples of "How to win Friends and Influence people".noblackhole":2y0tfbzs said:... fraud is revealed ... big banger ... frauds committed by the WMAP and COBE ... no way out for these fraudsters ... dead ducks ... Einstein's pseudo-tensor ... meaningless concoction ... relativists ... Bye-bye big bang ... deliberate falsifications ... facade of correspondence ... big bang and the black hole are scientific frauds
Abstract: The cosmological principle says that the Universe is spatially homogeneous and isotropic. It predicts, among other phenomena, the cosmic redshift of light and the Hubble law. Nevertheless, the existence of structure in the Universe violates the (exact) cosmological principle. A more precise formulation of the cosmological principle must allow for the formation of structure and must therefore incorporate probability distributions. In this contribution to the Memorial Volume for Wolfgang Kummer, a great teacher and mentor to me, I discuss how we could formulate a new version of the cosmological principle, how to test it, and how to possibly justify it by fundamental physics. My contribution starts with some of my memories of Wolfgang.
Abstract: Sky temperature map of the cosmic microwave background (CMB) is one of the premier probes of cosmology. To minimize instrumentally induced systematic errors, CMB anisotropy experiments measure temperature differences across the sky using paires of horn antennas with a fixed separation angle, temperature maps are recovered from temperature differences obtained in sky survey through a map-making procedure. The instrument noise, inhomogeneities of the sky coverage and sky temperature inevitably produce statistical and systematical errors in recovered temperature maps. We show in this paper that observation-dependent noise and systematic temperature distortion contained in released Wilkinson Microwave Anisotropy Probe (WMAP) CMB maps are remarkable. These errors can contribute to large-scale anomalies detected in WMAP maps and distort the angular power spectrum as well. It is needed to remake temperature maps from original WMAP differential data with modified map-making procedure to avoid observation-dependent noise and systematic distortion in recovered maps.
1 --- Introduction.
We are all so accustomed to reading that the universe "began" once a time with the Big Bang that most people no longer think it necessary to question or scrutinize it. A detailed analysis of the Big Bang theory, however, leads to consequences and implications that are inconsistent, or are contradicted by astrophysical observations, including important ones.
At the same time, one of the pillars of the model, the all important cosmic redshift- the shifting of spectral lines toward the red end of the spectrum, in proportion to the distance of the source from us- can be explained without invoking the Doppler velocity interpretation(1) so dear to Big Bang theorists. The redshift is explained instead by taking the intergalactic medium into account, and correcting our understanding of how light interacts with such a medium on its way to the observer. Two different theoretical approaches, semi classical electrodynamics and quantum electrodynamics, have shown that all interactions or collisions of electrodynamics waves (photons) with atoms are inelastic; that is, the photons lose a very small part of their energy as a result of the interaction. Hence, the greater the depth of the intergalactic medium through which a galaxy's light must pass, the more toward the low-energy end of the spectrum - that is, toward the red - is the light frequency shifted.
These considerations eliminate the limit on the size of the universe imposed by the Big Bang theory. Indeed one can say that the universe far greater than imagined.
Abstract: The black body nature of the first acoustic peak of the cosmic microwave background (CMB) was tested using foreground reduced WMAP 5-year data, by producing subtraction maps between pairs of cosmological bands, viz. the Q, V, and W bands, for masked sky areas that avoid the Galactic disk. The resulting maps revealed a non black body signal that has two main properties. (a) It fluctuates on the degree scale preferentially in one half of the sky, producing an extra {\it random} noise there of amplitude $\approx$ 3.5 $\mu$K, which is $\gtrsim$ 10 $\sigma$ above the pixel noise even after beam size differences between bands are taken into account. (b) The signal exhibits large scale asymmetry in the form of a dipole ($\approx$ 3 $\mu$K) in the Q-V and Q-W maps; and (c) a quadrupole ($\approx$ 1.5 $\mu$K) in the Q-V, Q-W, and V-W maps. While (b) is due most probably to cross-band calibration residuals of the CMB COBE dipole, the amplitude of (c) is well beyond systematics of the kind, and in any case no {\it a priori} quadrupole in the CMB exists to leave behind such a residual. The axes of symmetry of (a), (b), and (c) are tilted in the same general direction w.r.t. the axes of the Galaxy. This tilt prevents the immediate `trivialization' of (a) and (c) in terms of known effects or anomalies, including and especially those of the foreground. In particular, should future attempts in demonstrating the non-cosmological origin of (a) continue to prove difficult, it would mean that degree scale departures from the acoustic model of perturbations is occurring on the last scattering surface at the 4 -- 5 % level, and moreover the behavior varies significantly from one half of the universe to another.
Abstract: We study the spatial distribution and colours of galaxies within the region covered by the cold spot in the cosmic microwave background (CMB) recently detected by the Very Small Array (VSA; Genova-Santos et al. 2005, 2008) towards the Corona Borealis supercluster (CrB-SC). The spot is in the northern part of a region with a radius ~1 degree (~5 Mpc at the redshift of CrB-SC) enclosing the clusters Abell 2056, 2065, 2059 and 2073, and where the density of galaxies, excluding the contribution from those clusters, is ~2 times higher than the mean value in typical intercluster regions of the CrB-SC. Two of such clusters (Abell 2056 and 2065) are members of the CrB-SC, while the other two are in the background. This high density intercluster region is quite inhomogeneous, being the most remarkable feature a large concentration of galaxies in a narrow filament running from Abell 2065 with a length of ~35 arcmin (~3 Mpc at the redshift of CrB-SC) in the SW-NE direction. This intercluster population of galaxies probably results from the interaction of clusters Abell 2065 and 2056. The area subtended by the VSA cold spot shows an excess of faint (21<r<22) and red (1.1<r-i<1.3) galaxies as compared with typical values within the CrB-SC intercluster regions. This overdensity of galaxies shows a radial dependence and extends out to ~15 arcmin. This could be signature of a previously unnoticed cluster in the background.