THE MALTA COSMOLOGY TEMPLATE



Chapter 07 - Electrons






PARTS

Part 0700
Electrons
Home


Part 0701
Blackholepair

Physics


Part 0702
Blackholepair

Mechanics

Part 0703
Electron

Physics


Part 0704
Electron
Mechanics

Electron
Selfproofs




















Part 0702 - Blackholepair Mechanics

ARGUMENT 0702-07

PRECEDENTS
  • 0702-04:    That decreasing the distance between the blackholes of an adjacent blackholepair increases both their mutual gravitypull and their mutual rejectivity.    
    0702-05:    That decreasing the distance between the gravitoncores of an adjacent blackholepair sufficiently results in their mutual rejectivity countering their mutual gravitypull.    
    0702-06:    That countering the blackholepair's mutual gravitypull with its mutual rejectivity results in one blackhole adopting an axial structure.    
PARAMETERS
  • Consider an adjacent blackholepair.
  • Consider that each blackhole in the pair is understable.
  • Consider that the blackholes are held together by their mutual gravitypull and held apart by their mutual rejectivity and are thus subject to the strong force
  • Consider that one blackhole is centrifugally structured.
  • Consider that one blackhole is axially structured. 
  • Consider that the centrifugal blackhole has an east equator, a west equator, and two poles.
  • Consider that the axial blackhole has a northpole and a southpole.
  • Consider that the blackholes have adopted the position of least distress. 
  • Consider that the position of least distress has the east equator of the centrifugal blackhole locked to the southpole of the axial blackhole. 
  • Consider that gravitonospheric gravitons stream directly from the centrifugal equator to the axial southpole.
REASONING
  • Because gravitons stream directly from the centrifugal equator to the axial southpole, they combine with the axial blackhole's downwelling upper gravitonstream.
  • Because the axial blackhole's low level gravitonstream combines two sources, it has a very high dynamic mass
  • Because the axial low level gravitonstream has a high dynamic mass, the upwelling at the axial northpole has a high dynamic mass. 
  • Because the upwelling at the axial northpole has a high dynamic mass, the axial high level gravitonstream has a high dynamic mass.
  • Because the axial high level gravitonstream has a high dynamic mass, a proportion of its gravitons are unable to downwell at the axial southpole, they continue on to join the centrifugal high level gravitonstream. 
  • Because they join the centrifugal high level gravitonstream, they have combined combine with any upwelling from the centrifugal equator that is not absorbed by the axial southpole. 
  • Because the two gravitonstreams have combined, they have a high dynamic mass.
  • Because the combined gravitonstreams have a high dynamic mass, they push the centrifugal poles toward, but not to, the west equator. 
    • At the centrifugal poles most of the upper level gravitonstream downwells.
    • Any excess gravitons pass over the centrifugal poles to the west equator where they add to the dynamic mass of the equatorial upwell and escape from the blackholepair.
    • Above the upper level gravitonstreams of the axial and centrifugal blackholes is a coherent superior gravitonstream that moves directly from the axial northpole to the centrifugal poles.
    • This superior gravitonstream is the electrosphere.
    • With the electrosphere in place, the blackholepair is an electron and the blackholes are an axial quark and a centrifugal quark.
CONCLUSION
  • That enclosing an axial blackhole and a centrifugal blackhole inside an electrosphere turns the blackholes into quarks and the blackholepair into an electron.  


COMMENTARY

In showing what is needed for an electron to exist and endure, this chapter omits one important factor. It omits any mention of mass - and mass is all important in the ability of an electron to be selfregulating and enduring.

An electron has a specific mass - 9.108 x 10-31 kilograms. Thus its component quarks have masses that when combined fall within the total mass of the electron. Like the mass of the electron, the masses of the quarks are specific. If the masses are too high, the gravitonospheres won't be sufficiently rejective to keep the quarks apart. If they are too low, axial quarks will revert to their centrifugal default and the resulting blackholepairs are then vulnerable to breaking up.

Electrons do not spontaneously form out of "stray" blackholes. The rejectivity of appropriately sized blackholes is such that the blackholes have to be forced together in some form of "throat". Not only that, the appropriate size has to be of a mass that allows the blackholes to selfregulate themselves into the quarks inside an electron. Arguable, suitable throats, and a large quantity of appropriately sized blackholes, may have existed in the early moments of the Universe and produced cosmic electrons. Certainly, suitable throats exist today in the prodigious numbers within the structure of atoms - and within those throats are found the mechanism that creates blackholes of exactly the right size and mass. A full description of those throats and their mechanism is in Chapter Eight.







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

Copyright 2013 Peter (Ed) Winchester



HISTORY

21 Nov 2016 - page created.
23 Apr 2017 - changed teels to gravitons.