THE MALTA COSMOLOGY TEMPLATE



Chapter 03 - Blackholes







PARTS

Part 0300
Blackhole
Home Page


Part 0301
Gravitonpair

Physics

Part 0302
Blackhole

Physics

Part 0303
Blackhole

Structure

Part 0304
Blackhole Mechanics


Part 0305
Blackhole Attunement


Blackhole Selfproofs



















Blackhole Selfproofs

SELFPROOF 0312 - PETTYBLACKHOLE

Large mass blackholes are initiated by the gravitational collapse of large stars and subsequently grow by accretion (see Chapter 11 and Chapter 13). Some of the supermassive blackholes found at the centre of galaxies may have been "carried forward" from before Moment Zero (see Selfproof 0311).

The Universe also contains vast numbers of pettyblackholes. These are low mass blackholes created during the stabilisation of accretion particles such as electrons, nucleons, and atoms. They form, along with stabilisation photonsstabilisation electrons, and neutrinos, in the high pressure "throats" of accretion particles and are ejected from those particles at high speed. .
  • Photons are single blackholes with mass and energy measures that allow them to stabilise at lightspeed and within the photonic masses. The structure of photons means they subsequently always move at lightspeed irrespective of any changes in their mass (see Chapter 6). 
  • Electrons are pairs of blackholes that are forced sufficiently close together in the throat of the stabilising particle that their innate rejectivity is overcome and they can thus be held together by their mutual gravitypull. Electrons stabilise at less than lightspeed with a structure that allows subsequent speed changes without any accompanying change in mass (see Chapter 7). 
  • Neutrinos are produced in the throats of electrons. They may be single blackholes or they may be blackholepairs (see Chapter 7).
All stabilisation particles begin their formation at speeds substantially exceeding lightspeed and in an understable condition. In the case of photons and electrons this understability enables them to decelerate by differentially ejecting mass and energy until they reach stability, and with their stability maintained thereafter by their internal processes. Pettyblackholes are different in that they have no internal mechanism that maintains their mass and/or energy measures at a specific level so they differentially eject mass and energy until they become stable or until they dissipate to nothing.

Pettyblackholes are not ejected into empty space. The Universe is filled with "wall to wall" gravitysheaths and the larger of these gravitysheaths contain gravitonospheres which may or may not extend out to their respective gravitysheath interfaces. Within their gravitysheaths, these gravitonospheres are formed into gravitonstreams each of which will have, at any particular place, a measure of dynamic mass. It is into this morass of gravitonospheres that pettyblackholes are ejected.

Pettyblackholes are passive in that they attune themselves to the dynamic mass of the gravitonstream they are moving within. For many this results in dissipation but some survive for a while at least. That said, pettyblackholes are produced in such prodigious numbers that there are always more coming to replace those that dissipate.

Where the dynamic mass of a gravitonstream is low, pettyblackholes can survive for long periods. Such gravitonstreams are common in the outer regions of the gravitonospheres of galaxies. Thus it is that pettyblackholes are a substantial element of the mass of the darkmatter that is slowing galactic contraction.  







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

Copyright 2016 Peter (Ed) Winchester



REVISIONS

05 Nov 2016 - page created.
22 Apr 2017 - change teels to gravitons.