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Darkmatter Selfproofs |
SELFPROOF 0502
– PERIHELION PRECESSION OF MERCURY
CURRENT COSMOLOGY MODEL
Under
Newtonian physics, a two-body system consisting of a lone object
orbiting a spherical mass would trace out an ellipse with the
spherical mass at a focus. The point of closest approach, called the
periapsis (or, as the central body in our Solar System is the sun,
perihelion), is fixed. A number of effects in our solar system cause
the perihelia of planets to precess (rotate) around the sun. The
principal cause is the presence of other planets which perturb each
other's orbit. Another (much more minor) effect is solar oblateness.
Mercury
deviates from the precession predicted from these Newtonian effects.
This anomalous rate of precession of the perihelion of Mercury's
orbit was first recognised in 1859 as a problem in celestial
mechanics by Urbain Le Verrier. His reanalysis of available time
observations of transits of Mercury over the Sun's disk from 1697 to
1848 showed that the actual rate of the precession disagreed from
that predicted from Newton's theory by 38” (arc seconds) per
tropical century (later re-estimated at 4'3”). A number of ad hoc
and ultimately unsuccessful solutions were proposed but they tended
to introduce more problems. In general relativity, this remaining
precession, or change of orientation of the orbital ellipse within
its orbital plane, is explained by gravitation being mediated by the
curvature of spacetime. Einstein showed that general relativity
agrees closely with the observed amount of perihelion shift. This was
a powerful factor motivating the adoption of general relativity.
(Wikipedia 25 Aug 2012)
MALTA COSMOLOGY TEMPLATE
- In
a blackhole, the teelcore's gravitypull acts on the teelosphere and the
teelosphere's gravitypull acts on the teelcore. (see Argument 0514)
- A
smaller object within the teelosphere of a larger object is subject to
the gravitypulls of the larger object's teelcore and its teelosphere.
Depending on where the smaller object is within the teelosphere of the
larger object, the gravitypull of the teelosphere weakens or
strengthens that of the teelcore. (see Argument 0515)
COMMENTARY
- The
Sun is a gravity bound accretion of particles. Each of the particles
has a teelosphere and ultimately, so too has the Sun.
- The Sun is
currently understable and is shedding mass and energy in its solar
wind and photons - although its principle means of shedding mass and
energy is by ejecting teels.
- The Sun's teelosphere is centrifugal
which means that surrounding its equator there is a dense and
rapidly rising disk of teels.
- Since it cannot be seen, its presence
is only indirectly detectable in the effect it has on objects that
move within it. The density and the speed of the teels in the disk
falls with distance from the Sun per the Inverse Square Law so it is
only easily detectable relatively close to the Sun. It is detectable
in the perihelion precession of Mercury.
-
The
cause of the Mercury precession is actually a multiprocess:
- Mercury
is riding on the upward pressure of the rising teelstream in the
same way a pingpong ball rides on a jet of water.
-
Mercury
is subject to the gravitypull of the rising teelstream that has
gone beyond its orbit.
-
This
is not a rejection of general relativity but a clarification of the
cause of the precession.
- General Relativity attributes it to the
curvature of space.
- While the terms are different the
numbers are much the same.
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