[1053.80-1053.85 Growth and Decay Scenario]
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1053.802
Topology enumerates the critical-proximity-bonded
pairs of "points" as
constituting only one point and not as an almost tangent
two. Topological accounting is
confined to only superficially visible characteristics
of systems. (See Sec.
262.02.)
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1053.803
We learn experientially that lines are trajectories
(Sec.
521.20), that two
events and their trajectories cannot pass through the
same point at the same time (Secs.
517.01-06),
and that when we have such conflict or transit
interference, they result in
smashes (always separating each of the intersmashing
bodies into a plurality of smaller
systems, not dirt or dust), plunge-ins such as meteors
plunging into Earth (to form more
complex systems), refractions, reflections, or critical-proximity
interrattractiveness
cotravelings (Earth and Moon). When we do not have interference
conflicts but we have
two independent event trajectories converging to pass
"near" one another only at a
precessionally critical-course-refracting, mass-interattractive
distance, they may converge
and diverge in a twist vertex exit (see Secs.
921.15
and
942.12). The term vertex embraces
all of the foregoing system-furnished, local-focal,
event cases.
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1053.810
The vector equilibrium consists of eight tetrahedra
each of which is edge-
bonded; i.e., vertexially double-interbonded with three
others, with each of their pre-time-
size internal vertexes theoretically congruent as eight-in-one.
Each of the pre-time-size
vector equilibrium's eight tetrahedra has six vector
edges (6 × 8 = 48). (There are 24
internal and 24 external vector edges, 48 vector edges
in all.) Each of the eight tetrahedra
has four vertexes (4 × 8 = 32), and in each of the tetrahedra
three of these vertexes are
external (3 × 8 = 24): There are thus 12 externally
paired sets (24/2 = 12) of visible
vertexes. Three of each of the eight tetrahedra's vector
edges (3 × 8 = 24) are displayed
on the outside of the vector equilibrium. (Compare Sec.
1033.020.)
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1053.811
There are 24 external vector edges of the vector equilibrium
(8 × 3 = 24).
The other three vector edges of each of the eight tetrahedra
are arrayed inwardly as 24
internal edges (8 × 3 = 24), but these inwardly arrayed
vector edges of the eight
tetrahedra, being double-bonded or hinged together,
appear as only 12 radial spokes of the
vector equilibrium, which has 24 separate vectors in
its four closed chordal rims of the
four great-circle planes of the tetrahedra's four dimensionality;
these four great circles
produce the zerovolume tetrahedron. (See Sec.
441.)
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1053.812
Nature never stops or even pauses at dead center.
Nature contracts
convergently to the center of its nuclear sphere, where
each of its frequency-tuned
integrities self-interfere convergently and react reflectively__ergo,
omnidivergently__from
their own terminally convergent self-frequency interferings.
Unity is plural and at minimum
two. (See Secs.
905.11
and
1070.)
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1053.82
Life and Death
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1053.824
Apprehension is the physical brain's coordinate storing
of all the special
case, physically sensed information of otherness, integral
(the child's thumb sucked by its
mouth) or separate (the mother's udder sucked by the
child's mouth.) Comprehension is
the metaphysical mind's discovery of the meaningful
interrelationship between the special-
case information data that are neither implicit in,
nor inferred by, any of the special-case
information data when taken only separately__the meaning
discovered by mind being the
generalized principles manifest exclusively by the interrelationship
variables and constants.
Awareness means apprehending while also intuitively
comprehending that the excitement
over the novelty of the incoming information is significant
because possibly pregnant with
meaningful principles. (Compare Sec.
526.18.)
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1053.83
Positive Visible and Integral Invisible
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1053.84
Cay and Decay
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1053.845
In the generalized (subfrequency) nucleus-embracing,
convergent-divergent,
bivalent tetravolume vector equilibrium of frequency
one, its tetravolume is 20. VE1 = 20.
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1053.846
In the generalized (subfrequency) nucleus-embracing,
convergent-divergent
vector equilibrium of frequency two, the tetravolume
is 160. VE2 = 160. (See Sec.
966.05
and Fig.
966.05B.)
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1053.847
What must be remembered in considering all the foregoing
is that unity is
plural and at minimum two, as elucidated in Secs.
905.11
and
1070; wherefore the zero-
frequency vector equilibrium, the VE0 of "apparent"
tetravolume 2 1/2, has an inherent
but invisible double value that will have an operational
resource effectiveness of 5, 2 1/2 of
which is convergently effective and 2 1/2 divergently
effective. This produces the state of
equilibrium whose untenability induces cosmic resonance.
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1053.848
In the symmetrical doubling of linear (radial) dimension
the surface area
increases four times and the volume eight times their
original magnitude. In the case of the
nuclear (one sphere) vector equilibrium with radius
= 1 and volume = 2 1/2, when
surrounded with 12 closest-packed, uniradius spheres
and when the center of the nuclear
sphere is connected to the respective centers of the
12 surrounding spheres, the distance
between the center of the nuclear sphere and the center
of any one of its 12 surrounding
spheres is equal to 2 radii, or one diameter of the
uniradius spheres. With radius 2, 2 1/2 ×
8 = 20. (Compare Sec.
1033.63. )
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1053.849
Table: Initial Frequencies of Vector Equilibrium:
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1053.85
Inventory of Alternatives to Positive
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1054.00
Relationship of Gibbs to Euler
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1054.30
Synergetic Integration of Topology and Quanta: Synergetics'
"breakthrough" integration of Euler's topology and Willard
Gibbs' phase rule is explained
by the number of intertetrahedral bonds:
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1054.31
The rigid ice stage is characterized by load concentration,
no degrees of
freedom, and slow creep. The flexible, fluid stage is
characterized by hinge-bonding, load
distribution, one degree of freedom, and noncompressibility.
The flexible, fluid vapor stage
is characterized by universal jointing, load distribution,
six degrees of freedom, and
compressibility.
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1054.32
Median unity is two, therefore unity plus two equals
four.
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![]() Fig. 1054.40 |
1054.40
Topology and Phase (see Table
1054.40)
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1054.50
Polyhedral Bonding: Willard Gibbs' phase rule treats
with the states of the
environment you can sense with your eyes closed: crystallines,
liquids, gases, and vapors.
Euler's points, lines, and areas are visually described,
but they too could be tactilely
detected (with or without fingers).
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1054.51
The mathematicians get along synergetically using Euler's
topology alone. It
is the chemists and physicists who cannot predict synergetically
without using Gibbs'
phase rule.
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1054.52
Euler deals with the superficial aspects of polyhedra:
of visual conceptuality.
He deals only with the convex surfaces of polyhedral
systems. Euler deals with unit,
integral, single polyhedra, or with their subaspects.
He is not concerned with the modus
operandi of the associabilities or disassociabilities
of a plurality of polyhedra.
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1054.53
But Gibbs unknowingly deals with polyhedra that are
composited of many
polyhedra, i.e., compounds. He does not think or talk
about them as polyhedra, but we
find the connection between Euler and Gibbs through
the polyhedral bonding in respect to
Euler's aspects. Euler's lines are double bonds, i.e.,
hinges. Euler's vertexes are single
bonds. Euler's areas are triple bonds. Gibbs accommodates
the omnidirectional system
complementations of the other senses__thermal, tactile,
aural, and olfactory__not just
associatively, but radiationally. Gibbs brings in time.
Time is tactile. Time is frequency.
Our pulses measure its passing.
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1054.54
People see things move only relative to other things
and feel small vibrations
when they cannot see motion. The tactile feels angular
promontories or sinuses with the
fingers or body. Sinus means "without"__ "nothing," invisible,
ergo, nonidentified by
Euler. The frequencies we call heat are tactilely sensed.
We have radiation-frequency
tunability range. Our skin structuring is tuned to frequencies
beyond the eye-tunable
range, i.e., to ultraviolet and infrared.
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1054.55
Euler did not anticipate Gibbs. Gibbs complements Euler__as
does
synergetics' identification of the two excess vertexes
as constituting the axis of conceptual
observation in respect to all independent, individual
orientations of all systems and
subsystems; i.e., quantum mechanics' abstract, nonspinnable
"spin."
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1054.56
We find Euler and Gibbs coming together in the vertexial
bonds, or
polyhedral "corners," or point convergency of polyhedral
lines. The bonds have nothing to
do with the "faces" and "edges" they terminally define.
Two bonds provide the hinge,
which is an edge bonding. One bond gives a universal
joint. Triple or areal bonding gives
rigidity.
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1054.57
Mass-interattraction is always involved in bonding.
You may not have a
bond without interattraction, mass or magnetic (integral
or induced), all of which are
precessional effects. As Sun's pull on Earth produces
Earth orbiting, orbiting electrons
produce directional field pulls. This was not considered
by Euler because he was dealing
only with aspects of a single system.
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1054.58
Gibbs requires the mass-interattraction without saying
so. Mass-
interattraction is necessary to produce a bond. Gases
may be tetrahedrally bonded singly,
corner to corner, or as a universal joint. Gibbs does
not say this. But I do.
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| Next Section: 1054.60 |