240.00 Synergetics Corollaries
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240.01 Universe is finite. |
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240.02
Local systems are de-finite.
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240.03
Unity is complex and at minimum two.
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240.04
The tetrahedron is the lowest common rational denominator
of Universe.
The four unique quanta numbers of each and every fundamental
"particle" are the four
unique and minimum "stars" of every tetrahedron.
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240.05
A "point" is a tetrahedron of negligible altitude
and base dimensions.
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240.06
A "line" (or trajectory) is a tetrahedron of negligible
base dimension and
significant altitude.
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240.07
A "plane" (or opening) is a tetrahedron of negligible
altitude and significant
base dimensionality.
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240.08
There are no solids or particles__no-things.
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240.09
A point is an as yet undifferentiated focal star embracing
a complex of local
events.
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240.10
There are no indivisible points.
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240.11
Unities may be treated as complex star points.
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240.12
For every point in Universe, there are six uniquely
and exclusively operating
vectors.
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240.13
Vectors are size.
No vectors = No size. No size = No vectors. |
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240.14
The size of a vector is its overall wavilinear length.
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240.15
There are six vectors or none.
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240.16
Every event has size.
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240.17
Every event is six-vectored.
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240.18
Six unique vectors constitute a tetrahedral event.
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240.19
Each vector is reversible, having its negative alternate.
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240.20
All "lines," trajectories, are the most economic vectorial
interrelationships of
nonsimultaneous but approximately concurrent local-event
foci .
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240.21
Potentially straight-line relationships require instantaneity
or actions in no-
time; therefore, straight lines are nondemonstrable.
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240.22
The overall longitudinal length of wavilinear vectorial
lines is determined by
the number of waves contained.
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240.23
The number of waves longitudinally accomplished in
a given time constitutes
frequency.
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240.24
Physics has never made an experimentally demonstrable
discovery of a
straight line. Physics has found only waves and frequencies,
i.e., angle and frequency
modulation.
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240.25
There are no straight lines, physical or metaphysical.
There are only
geodesic, i.e., most economical, interrelationships
(vectors).
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240.26
All "lines," trajectories, are complexedly curved.
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240.27
Vectorial lines, or "trajectories," are always the
most economical event
interrelationships, ergo, geodesic.
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240.28
Every "point" (event embryo) may articulate any
one of its four event vector
sets, each consisting of six positive and six negative
vectors, but only one set may be
operative at any one time; its alternate sets are momentarily
only potential.
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240.29
Potential lines are only inscrutably nonstraight;
all physically realized
relationships are geodesic and wavilinear.
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240.30
Two energy event trajectories, or "lines," cannot
go through the same point
at the same time.
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240.31
All geodesic lines, "trajectories," weave four-dimensionally
amongst one
another without ever touching one another.
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240.32
It takes a minimum of six interweaving trajectories
to isolate insideness from
outsideness, ergo, to divide all Universe systematically
into two parts__macrocosm and
microcosm.
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240.33
A six-trajectory isolation of insideness and outsideness
has four interweaving
vertexes or prime convergences of the trajectories,
and four areal subdivisions of its
isolation system, and constitutes a tetrahedron.
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240.34
Tetrahedrons occur conceptually, independent of realized
events and relative
size.
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240.35
Whereas none of the geodesic lines, “trajectories,”
of Universe touch one
another, the lines, "trajectories," approach one another,
passing successively through
regions of most critical proximity, and diverge from
one another, passing successively
through regions of most innocuous remoteness.
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240.36
All lines, "trajectories," ultimately return to close
proximity with themselves.
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240.37
Where all the local vectors are approximately equal,
we have a potentially
local isotropic vector equilibrium, but the operative
vector complex has the inherent
qualities of both proximity and remoteness in respect
to any locally initiated action, ergo, a
complex of relative velocities of realization lags.
(See Sec. 425.01.)
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240.38
Universe is a nonsimultaneously potential vector equilibrium.
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240.39
All local events of Universe may be calculatively
anticipated by inaugurating
calculation with a local vector equilibrium frame and
identifying the disturbance initiating
point, directions, and energies of relative asymmetrical
pulsings of the introduced action.
(See Sec. 962.30.)
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240.40
In the isotropic vector matrix derived from the closest
packing of spheres,
every vector leads from one nuclear center to another,
and therefore each vector
represents the operational effect of a merging of two
force centers upon each other. Each
vector is composed of two halves, each half belonging
respectively to any two adjacent
nuclear centers; each half of the vector is the unique
radius of one of the tangent spheres
that is perpendicular to the point of tangency. The
half-vector radii of the isotropic vector
matrix are always perpendicular to the points of tangency;
therefore they operate as one
continuous vector. Unity, as represented by the internuclear
vector modulus, is of
necessity always of the value of two; that is, unity
is inherently two, for it represents union
of a minimum of two energy centers.
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240.41
Synergetics’ six positive and six negative omnisymmetrical,
potential
realization, least effort interpatterning, evolutionary
schemata reference frames are
reinitiated and regenerated in respect to specific local
energy event developments and
interrelationships of Universe.
(See Sec. 537.14.)
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240.42
Arithmetical one-dimensionality is identified geometrically
with linear
(trajectory) pointal frequency.
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240.43
Arithmetical two-dimensionality is identified geometrically
with areal
(openings) growth rate.
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240.44
In a radiational (eccentric) or gravitational (concentric)
wave system:
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Arithmetical three-dimensionality is identified with volumetric space growth rates; |
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Arithmetical four-dimensionality is unidentifiable geometrically; |
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Synergetical second-powering is identified with the point population of the progressively embracing, closest-packed arrays at any given radius stated in terms of frequency of modular subdivisions of the circumferential array's radially-read concentricity layering; |
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Synergetical third-powering is identified with the cumulative total point population of all the successive wave layer embracements of the system; |
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Synergetical fourth-powering is identified with the interpointal domain volumes; and |
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Fifth- and sixth-powerings are identified as products of multiplication by frequency doublings and treblings, and are geometrically identifiable. |
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240.45
Synergetical six-dimensionality is identified geometrically
with vectorial
system modular frequency relationship.
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240.46
Synergetical size dimensionality is identified geometrically
with relative
frequency modulation.
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240.47
Dimension may be universally and infinitely altered
without altering the
constant vectorial integrity of the system.
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240.48
There is no dimension without time.
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240.49
Doubling or halving dimension increases or decreases,
respectively, the
magnitude of volume or force by expansive or contractive
increments of eight, that is, by
octave values.
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240.50
Identically dimensioned nuclear systems and layer
growths occur alike,
relative to each and every absolutely compacted sphere
of the isotropic vector matrix
conglomerate, wherefore the integrity of the individual
energy center is mathematically
demonstrated to be universal both potentially and kinetically.
(See Sec. 421.10.)
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240.51
Frequency is multicyclic fractionation of unity.
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240.52
A minimum of two cycles is essential to frequency
fractionation.
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240.53
Angle is subcyclic__that is, fractionation of one cycle.
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240.54
Angular relationships and magnitudes are subcyclic;
ergo, subfrequency;
ergo, independent of size.
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240.55
Shape is exclusively angular.
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240.56
Shape is independent of size.
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240.57
Abstraction means pattern relationship independent
of size. Shape being
independent of size is abstractable.
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240.58
Abstractions may be stated in pure principle of relationship.
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240.59
Abstractions are conceptually shapable!
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240.60
Different shapes__ergo, different abstractions__are
nonsimultaneous; but all
shapes are de-finite components of integral though nonsimultaneous__ergo,
shapeless__Universe.
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240.61
There are no impervious surface continuums.
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240.62
In a structural system, there is only one insideness
and only one outsideness.
(See Sec.602.02.)
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240.63
At any instant of time, any two of the evenly coupled
vertexes of a system
function as poles of the axis of inherent rotatability.
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240.64
In a structural system:
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240.65
The six edges of the tetrahedron consist of two sets
of three vectors, each
corresponding to the three-vector teams of the proton
and neutron, respectively. Each of
these three-vector teams is identified by nuclear physics
as
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240.66
All structural phenomena are accounted in terms of
tetrahedron, octahedron,
vector equilibrium, and icosahedron.
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| Next Section: 250.00 |