Support for a local variable lightspeed in an ellipsoidal transition zone.

Support for a local variable lightspeed inside an ellipsoidal transition zone around the earth.
According to Quantum FFF Theory, the earth gravity related LASOF ( Local A Symmetric Oscillating vacuum Frame) is dragging the lightspeed inside an ellipsoidal shaped speed transition volume around the earth inside the solar reference LASOF, with full extinction effect at the edges. 
The Michelson and Morley experiment observed that at the earth surface there is NO vacuum or ether effect.
However at higher altitudes there seems to be an ellipsoidal transition zone .
 Supported by lightspeed outlier comparison between CHAMP tandem satellites done by Tae Suk Bae ( doctoral thesis Ohio state university) see also:
https://kb.osu.edu/dspace/bitstream/handle/1811/78639/1/SES_GeodeticScience_Report_481.pdf
http://vixra.org/pdf/1409.0164v2.pdf
(The O‘Connell effect in eclipsing binaries explained by mass
related light speed extinction distances (LASOF) of stars and even
planets)

Dual Galaxy Anchor Black Holes (dark matter) in the early universe.

According to Quantum FFF Theory, Big Bang BH splinters acted as numerous dual seeds for star and galaxy formation in between. See below.
This is is a color composite image in the green, red and infrared bands of a patch of the sky known as the COSMOS field, as imaged by the Subaru Telescope in Hawaii.
The galaxies are seen at such large distances that the light from them has taken billions of years to reach Earth.
The light from the faintest galaxies in this image was emitted when the universe was less than 10 percent of its present age.
Credit: Princeton University/HSC Project.
https://www.sciencedaily.com/releases/2017/03/170301105423.htm#.WLmDAoZetQ8.twitter

An other example:

Revisiting Black Holes as Dark Matter.

Could dark matter be made of intermediate-mass black holes formed in the beginning of the universe?
Quantum FFF Theory says: YES. The Big Bang was a huge exploding Dark Matter Black Hole see below and the article:
A recent study takes a renewed look at this question. see:
http://aasnova.org/2017/02/17/revisiting-black-holes-as-dark-matter/

Numerous Dark Matter peaks suggested to be Galaxy Anchor Dark Matter Black Holes

See:
Dark matter clump distributions in a distant galaxy cluster.
https://www.sciencedaily.com/releases/2017/03/170301105603.htm#.WLcsPraFGOM.google_plusone_share
and: https://phys.org/news/2017-03-team-dark.html
According to Quantum FFF Theory, Galaxy Anchor Black Holes are dual grouped Big Bang Black Hole splinters mostly grouped into dual Herbig haro systems,
as a base for star and galaxy formation.


 3-D visualization of reconstructed dark matter clump distributions in a distant galaxy cluster,

2x Merging Galaxies as giant second generation Herbig Haro systems

Astronomers have found an enormous, glowing blob of gas in the distant universe, with no obvious source of power for the light it is emitting. Called an "enormous Lyman-alpha nebula" (ELAN), it is the brightest and among the largest of these rare objects, only a handful of which have been observed.

Explanation according to Quanum FFF Theory: Second generation giant dual black hole Herbig Haro system assumed to be found inside a proto cluster, possibly based on two growing central Black holes according to Quantum FFF Theory..   Zheng Cai, a postdoctoral fellow at UC Santa Cruz, said that they found the enormous nebula in the middle of a protocluster, near the peak density.
see : http://www.scienceworldreport.com/articles/57554/20170304/glowing-blob-mysterious-new-discovery-universe.htm

Glowing blob in distant galaxy puzzles scientists. (Image for representation only.) 
(Photo : NASA.gov Video/YouTube screen

Two merger galaxies with large central black holes seem to be able to create a dual second generation BH Herbig Haro system here.

see also: http://news.ucsc.edu/2017/02/mammoth-nebula.html
MAMMOTH-1 is an extended blob of gas in the intergalactic medium called an enormous Lyman-alpha nebula (ELAN). The color map and contours denote the surface brightness of the nebula, and the red arrows show its estimated spatial extent. (Image credit: Figure 2 of Cai et al., Astrophysical Journal)