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Part 8 - Selfproof (cont) |
SELFPROOF 0310 - HAWKING RADIATION
CURRENT COSMOLOGY MODEL
Hawking
radiation is a black body radiation that is predicted to be released by
black holes, due to quantum effects near the event horizon. .....
Hawking radiation reduces the mass and the energy of the black
hole and is therefore also known as black hole evaporation. because of
this, black holes that lose more mass than they gain through other
means are expected to shrink and ultimately vanish. Micro black holes
are predicted to be larger net emitters of radiation than larger black
holes and should shrink and dissipate faster. (Wikipedia 24 December
2014)
MALTA COSMOLOGY TEMPLATE
- Every blackhole has a vergence velocity. (see Argument 0315)
- Every blackhole has an escape velocity. (see Argument 0316)
- A blackhole is either overstable, stable, or understable. (see Argument 0317)
- The
degree of a blackhole's overstability or understability changes
commensurately with any change in its vergence velocity and/or escape
velocity. (see Argument 0318)
- When a blackhole
absorbs a teel, it gains proportionately more energy than mass. When a
blackhole ejects a teel, it loses proportionately more energy than
mass. (see Argument 0330)
- An understable blackhole
differentially ejects mass and energy until it becomes stable. An
overstable blackhole differentially absorbs mass and energy until it
becomes stable. (see Argument 0331)
COMMENTARY
It is thought by some that that the radiation may
be observable where blackholes are distant from other brighter
emissions - and it is thought by some that the creation of micro blackholes
in colliders will allow their dissipation to be observed. As of 2014, no confirmed Hawking Radiation has been detected through observation
or experimentation.
Notwithstanding
their different approaches, the Current Model and the Malta Template
are very close. In both of them, blackholes can eject mass
and energy as well as absorb it.
- In
the Current Model, due to quantum effects the ejection of mass
from a blackhole is a continuing process which will eventually result
in its complete dissipation. The
dissipation can be slowed by the continuing absorption of mass. If
enough mass is absorbed, the dissipation can be countered or even
reversed.
- In
the Malta Template, teels (and thus mass and energy) are absorbed
by a blackhole as long as there are teels capable of being
absorbed. If the absorption is of fast teels it will make the
blackhole understable. To compensate for the understability, the
blackhole
automatically ejects teels until it returns to stability. If
the absorption is of slow teels it will make the blackhole overstable.
To compensate for the overstability, the blackhole automatically
ceases ejecting
teels until it returns to stability.
- A
prolonged absorption of fast teels would result in a progressive
differential decrease in the mass and energy of the blackhole. If
the absorption went on long enough, the blackhole would completely
dissipate.
- A
prolonged
absorption of slow teels would result in a progressive differential
increase in the mass and energy of the blackhole. If the absorption
went on long enough, the blackhole would become extremely massive.
In the Current Model, Hawking
Radiation, the primary ejection is of photons but the ejection of electrons,
neutrinos, and nucleons is
also possible.
In
the Malta Template, the primary ejection is of teels but the ejection
of small blackholes, photons, electrons, neutrinos and nucleons is also
possible.
- In
the Malta Template, for small blackholes, photons,
electrons, neutrinos, and nucleons to be ejected they must first be
created. In a centrifugal blackhole, this happens at its teelosphere
pressure point. The pressure point is low level, at
the equator, where fast and dense teelstreams come from the north and
south poles to clash and force each other upward. It is here that, if
the pressure is great enough, adjacent teelpairs can be forced
together to become blackholes, photons,
and more complex objects.
Virtual particles
Some
explanations for Hawking Radiation employ the creation of virtual
particle pairs. In the Current Model, virtual particles are
hypothetical objects. In the Malta Template, virtual particles don't arise at all but this doesn't mean the
virtual particle hypothesis is entirely wrong. In the Current Model
there is no subfermionic equivalent to the teel. Teels are currently
undetectable (directly) but in the right conditions numbers of teels
can form into very detectable particles. In terms of observability,
this equates to particles appearing out of nowhere, out of
nothing.
The right conditions for the appearing of
observable particles out of nothing, out of teels, are found at a
blackhole equator where the teelstreams coming from the north and south
poles clash to produce a pressure point. While not suggesting that this
validates the creation of virtual particle pairs as an explanation for
Hawking Radiation, a correspondence can be seen here.
Blackhole jets
Some
galaxies emit jets from their poles. The Current Model suggests that
most, if not all, galaxies have a central blackhole so it is
reasonable to suppose that these jets are actually being emitted by the
blackhole. Some cosmologists suggest these blackhole jets are
a means of ejecting mass and thus an aspect of Hawking Radiation.
In the Malta Template, composite objects have a structure that is either axial or centrifugal (see Chapter Five).
Understable axially structured objects eject excess mass in polar jets.
Centrifugally structured objects eject excess mass at the equator. Some
types of centrifugally structured objects do form jets but these
are not their principal means of ejecting excess mass. Most
centrifugally structured objects do not form jets. This infers that
blackholes with jets have an axial structure (see Chapter Thirteen).
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GLOSSARY
- axial blackhole: The
teelosphere of an axial blackhole responds to the spin of the
blackhole's teelcore, and to the influence of the teelstream through
which the blackhole is moving, by rising at the southpole, moving to
the northpole at high level, sinking at the north, proceeding to the
southpole at low level, and so on. (see also 'centrifugal blackhole')
- centrifugal blackhole: The teelosphere of a centrifugal blackhole responds to the
spin of the blackhole's teelcore by rising at the equator, moving to
the poles at high level, sinking at the poles, and returning to the
equator at low level. (see also 'axial blackhole')
- 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.
- understable: An object is understable when its vergence velocity is higher than its escape velocity.
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