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Part 0502 - Axial Blackholes |
ARGUMENT
0502-03
PRECEDENTS
PARAMETERS- Consider a centrifugal blackhole that is within a gravitonstream.
- Consider that the gravitonstream has a dynamic mass.
- Consider that the blackhole has a dynamic mass.
- Consider that the dynamic masses of the gravitonstream and the blackhole may be in equilibrium.
- Consider that the dynamic masses of the gravitonstream and the blackhole may be out of equilibrium.
REASONING
- Because
the dynamic masses of the gravitonstream and the blackhole are out of
equilibrium, the blackhole is either overstable or understable.
- If the blackhole is overstable, it absorbs gravitons, and thus mass and energy, until it is stable.
- If the blackhole is understable, it ejects gravitons, and thus mass and energy, until it is stable.
- Because the blackhole is now stable, it's dynamic mass is in equilibrium with the dynamic mass of the gravitonstream.
- Thus a centrifugal blackhole attunes itself to the dynamic mass of the gravitonstream it is within.
CONCLUSION
- That a centrifugal blackhole will attune itself to the dynamic mass of the gravitonstream it is within.
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COMMENTARY
To
illustrate what happens on a larger scale, consider a log on the bank
of a fast flowing river. While the log is stationary on the bank it is
stable but tip it into the river and it immediately becomes overstable
because it is not moving as fast as the river. However, it speeds up by
absorbing energy from the water until it is moving at the same
speed as the river - at which point it is stable again and in
equilibrium with the river.
The
argument perhaps gives the impression that attunement, once
achieved, is a
peaceful and constant condition. In real life, the dynamic mass of a
gravitonstream is rarely constant for long. The nearer a gravitonstream
is to
an equator, the greater is its dynamic mass. Thus a blackhole's
attunement is a continuing process. And, of course, blackholes can move
from one gravitonstream to another.
A
notable part of the attunement process is that a blackhole, given
enough time, will adopt the least stressful orientation relative
to the gravitonstream. The least stressful orientation has the
blackhole's equator aligned to the gravitonstream's direction of flow.
An example of this on a larger scale can be seen in the orientation of
Planet Earth relative to the Sun - the gravitonosphere/atmosphere of both
the Earth and the Sun is centrifugal and consequently the least
stressful orientation is equatorial disc to equatorial disc.
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