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The Society for the
Diffusion of Knowledge
P.O. Box 964, Kaunakakai, HI 96748 |
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The sharp cutoff of energy, giving the sphere a well defined spherical
surface is attributed to the outside shells of three orthogonal outside-shelled
spirals in combination. This link
will take you to a single OSS in two dimensions, illustrating the static
curvature of contributing field surfaces.
| As of June 21, 2011 many references are wrong as are the quantum colors being that I chose to go with a Cartessian left-hand frame of reference. |
In this example
shown, three charged spiral objects of orthonormal axes, respectively,
combine to produce a TRION.
Any combination of three orthonormal field objects may combine in this
way. The field objects which are permitted to combine in this way
include: neutral dual-wave radial configurations, positive and negative
ISSs and OSSs. By definition then, a TRION,
in the least, consists of any combination of dual-wave radials, ISSs and
OSSs.
In reference to the previous illustration, any spiral whose orbital axis
parallels the x-axis of a right-hand rectangular coordinate frame of reference
is positive (NORTH
pole pointing to the right), belongs to a class of red quantum chromodynamic
field objects. The spiral whose orbital axis parallels the
y-axis of a right-hand rectangular coordinate frame
of reference is negative (NORTH
pole pointing out of the paper), belongs to a class of magenta quantum
chromodynamic field objects. The spiral whose orbital axis parallels
the z-axis of a right-hand rectangular coordinate frame of reference is
positive (NORTH
pole pointing up), belongs to a class of blue quantum chromodynamic field
objects.
Of the three,
magenta is an opposite, or rarely occurring chroma class, or anti-objects.
On the right,
a TRION
consisting of normal spirals is shown.
Using
the left-hand rule, where the index finger points in the initial direction
of the wave in orbit prior to becoming a standing wave, the thumb will
be pointing NORTH.
If two waves are in counter rotation, this rule does not apply.
The black
arrows point in the direction of each wave corresponding to its spiral
configuration. Accordingly, the red spiral configuration has its
NORTH
pole directed to the right along the X-axis, the green spiral configuration
has its NORTH
pole directed into the paper (away from the observer) along the Y-axis
and the blue spiral configuration has its NORTH
pole directed upwards along the Z-axis.
The colors
of each spiral configuration identify its source: red for the red
layer, green for the green layer and blue for the blue layer, and, cyan
for the cyan layer, magenta for the magenta layer and yellow for the yellow
layer.
| A TRION whose X-axis spiral configuration originated the cyan layer would appear as this. In its case, its directional arrow is opposite than before and its NORTH pole points to the left. |
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| The complete opposite of the first TRION shown, would be one whose ISSs came from the negative layers cyan (x), magenta (y) and yellow (z), which, because of their opposite charges along all three planes, if in close proximity to the other, both would be drawn towards each other and undergo mutual annihilation as their centers approached coincidence. |
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Their attraction
is comprehensive in that polar attraction and radial attraction come into
play no matter their relative orientations.
An approach
from any of the three planes
would
be facilitated as unlike spirals common to the same plane, driving them
together. However their approach along any of the three axial directions
would be inhibited by polar twisting of their like poles in opposition,
much in the same way magnetism works. If in the case, these two TRIONS
come together, it will result in a virtually instantaneous and simultaneous
unwrapping of their spirals arms along all three planes, with the obvious
release of great system energy as changing curvature of the field surfaces
in this region of the Random Field. (See ANNIHILATION
PATTERNS.)
ELEMENTARY
FIELD CONFIGURATIONS
ELEMENTARY CONFIGURATION REACTIONS
ln = I+n or I-n (spontaneous generation, not reversible)
2ln = Ron (spontaneous generation, not reversible)
Ron = O+n + I-n or O-n + I+n (decay, not reversible)


In the above
chart, the positive base DION
O+x + O+y (at the top of the
chart in the box) is arbitrarily chosen as a permitted system DION;
all other dions graded as to their persistence in its presence, those in
green at the bottom of the chart being fully annihilated by its presence.
This means, that within this system, the bottom four DION
configurations are disallowed. Two of them are further disallowed
because they are mixed between ISSs and OSSs.
At the top
of the chart in salmon color, three DIONS
are greatly repelled (double repelled) by the base DION,
which means that they have the greatest system persistence, except that
two of them are disallowed because they are mixed OSSs and ISSs, leaving
only one, the I+x + I+y.
The following
chart, by application of these rules shows the permitted system dions.

At the bottom
of this chart are the least likely DIONS
to be present; at the top, the most common. The shaded areas
may be assigned numerical values ranging from greater than zero (possible)
to close to unity for salmon colored DIONS.
The next chart
shows the permitted association of these DIONS
with free spiral configurations forming TRIONS.
And though this process seemingly rather benign, with wondering spiral
configurations, those allowed of course, in absence of any coerced annihilations,
cruising everywhere about the...thus slipping into an unoccupied niche
in an complete DION,
in one case like a trojan horse ready to implode...such as an Rox.
In its case,
consisting of a naturally occurring neutral oblate glob of sorts, with
an occasional faint magnetic field, though its axis impeccably stable,
though ill defined, an Rox, though blessed into
Being by spontaneous generation, will decay; its two ls,
each drifting away, beyond the ability of any recovery into the field whence
they once ago arose, only to drive their energy one more time around in
this finite region of the Random Field, about which we study.