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.