Wondering if you read the previous page where I clearly stated numerous predictions plasma cosmology has made and how they differ from big bang theory? Did you read any of the references so you can see that the predictions were indeed made?
http://www.internationalskeptics.com/forums/showpost.php?p=6583582&postcount=3400 Most of which have been confirmed since.
Those are not predictions, they are dishonestly compared to the Big Bang standard, and they are dishonestly presented as "confirmed".
#1. That's not a prediction, nor a confirmation, that's a statement of parts of the two models.
#2. The Big Bang doesn't predict that the Universe is nonfilamentary. When I say the words "Large Scale Structure", this is what I'm talking about. The observed filaments are exactly what you predict from gravity's normal attraction, acting on the exact same set of wave modes that also explain the CMB. Again, this is a
numerical agreement. Where is PC's numerical prediction of large-scale structure? (NOTE: digging up a random plasma simulation and saying "Look, there are filaments in
this random tokamak photo, and also in cosmology" is not the same thing as saying "The actual space plasma in my actual cosmology theory obeys *these* force laws, and here I show *those* force laws making filaments with *this* power spectrum")
#3. Citation #30 doesn't predict CMB anisotropy; it's an attempt to explain CMB
isotropy, not anisotropy. (As a side note is uses
incompetent statistics. You can't do a least squares fit to a line in log-log space. It just doesn't work. 100% of the "statistical significance" of that line-fit---which is the entire content of the paper---is due to the two leftmost data points.)
Citation #31 barely mentions the CMB at all, and when it does it doesn't mention anisotropy---but it DOES throw out a handful of alternative CMB theories all of which are different than the one in reference #30. (It's also a generic crackpot paper, right down to the "whoa, what if atoms are like, little galaxies" speculations.)
#4. The Big Bang prediction of
random anisotropy is one of the most precisely confirmed aspects of the whole thing. It's called "gaussianity". The preferred-orientation? It's called a dipole. It's there because the Earth/Sun/Milky Way are moving, and has nothing to do with the source of the CMB. If you think the Sun/Earth/MW motion does not predict a dipole, then you're insane. Can there be another preferred orientation? Sure, you could have a quadrupole. You know what the data says? The single most surprising thing about the CMB is that the quadrupole is
unusually weak. The lack of a quadrupole term tells you quite strongly that the CMB is not somehow dependent on a local B-field vector.
And I challenge you Sol to produce one of the predictions of BBT in return.
Why don't you list the standard ones and tell us what you think of *them*. You've heard of them before. Pedagogical, historical, and technical references are very easy to find.
The CMB (temperature, blackbody spectrum, Gaussian scale-invariant fluctuations, strong E-mode polarization correlated with temperature ... ), the LSS (CDM evolution under gravity with exactly the CMB as initial condition, plus BAO with the CMB as initial condition), weak lensing (same prediction as LSS with a different z-dependence), SNe (should show Hubble's Law, including time dilation, with all the GR constants set from LSS and CMB data), LyA (same prediction as LSS, tested at different redshifts), BBN (has to match the time/temperature/density history seen in the CMB)