THE MALTA COSMOLOGY TEMPLATE



Chapter 3 - Blackholes







PARTS



Chapter
Home


Part 1
Teelpairs


Part 2
Blackholes


Part 3
Blackhole structure


Part 4
Blackhole mechanics


Part 5
Blackhole selfstabilisation


Part 6
Blackhole gravitational attunement


Part 7
Blackhole teelospheric attunement


Part 8
Selfproof

Home




















Part 8 - Selfproof (cont)

SELFPROOF 0309 - GALAXY

CURRENT COSMOLOGY MODEL


Any of numerous largescale collections of stars, gas, and dust that make up the visible universe. Galaxies are held together by the gravitational attraction of the material contained within them, and most are organised around a galactic nucleus into elliptical or spiral shapes, with a small percentage of galaxies classed as irregular in shape. A galaxy may range in diameter from some hundreds of lightyears for the smallest dwarfs to hundreds of thousands of lightyears for the largest ellipticals, and may contain from a few million to several trillion stars. Many galaxies are grouped into clusters, with the clusters themselves often grouped into larger superclusters. (American Heritage Science Dictionary)



MALTA COSMOLOGY TEMPLATE


COMMENTARY


The Current Cosmology Model is rooted in a devolutionary perception of the Universe, as seen from Planet Earth at the present time. With the evolutionary description of the Universe that is the Malta Cosmology Template, galaxies are perceived differently.

  • What is not a galaxy? A gathering of stars and lesser objects, held together by their mutual gravitypull is not a galaxy. It is a protogalaxy, an object which through the gaining of mass and/or the shedding of energy may become a a galaxy. 
  • What is a galaxy? A galaxy is a blackhole, structured exactly as described in Chapter Three. It is a teelcore surrounded (perhaps) by a teelocean surrounded (perhaps) by a teelosphere surrounded by a gravitysheath interface.
  • In practice, the difference between a galaxy and any other blackhole is merely a matter of size with there currently being no specific mass measures that define one blackhole as a galaxy and another as not. In the current perception, a galaxy is an "island universe", a conglomeration of gravitationally bound stars, etc, but in truth this is a false perception. There is actually no reason why a galaxy should have any stars at all.  The galaxies we can see all do have stars but there is nothing in the laws of physics dictating that they have to. 
  • Galactic blackholes are either overstable, stable, or understable.    
  • The galaxies we are able to see easily and directly are understable blackholes, from which photons are able to escape across the blackhole's gravitysheath interface. Photons can “leak” from stable and overstable galaxies but in quantities that are relatively small. If any such galaxies are visible to us, they will be dim. 
  • Our ability to “see” galaxies is due to the photons emitted by the composite objects bound into the blackhole's teelosphere: planets, stars, gas clouds, star clusters and so on. These are created, evolve, and die according to simple mechanical rules. The form of these objects is unimportant to the evolution of the blackhole teelcore, other than as a means of shedding mass and energy and thus enabling the teelcore to move towards stability. The ultimate role of the composite objects is to serve as teel fuel to be “energy filtered” by the teelcore. 


GLOSSARY
  • gravitysheath interface:     Where two gravitysheaths abut.
  • overstable:     An object is overstable when its vergence velocity is lower than its escape velocity. 
  • stable:     An object is stable when its vergence velocity is the same as its escape velocity.
  • teelcore:     The matrix of solidbonded teelpairs at the centre of a blackhole. 
  • teelocean:     The stratum of liquidbonded teelpairs that may surround the teelcore of a blackhole.
  • teelosphere:     The stratum of gasbonded teelpairs that may surround the teelcore of a blackhole. 
  • understable:     An object is understable when its vergence velocity is higher than its escape velocity.






Comments and suggestions:  peter.ed.winchester@gmail.com

Copyright 2013 Peter (Ed) Winchester



REVISIONS

20 June 2014 - page revised to 3-section format.
23 June 2014 - revisions to text and glossary added.