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515.01
Definition
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515.10
Angles
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515.13
For how many cycles of relative-experience timing
shall we go in each
angular direction before we change the angle of direction
of any unique system-describing
operation?2
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(Footnote 2: Now that we understand this much, we may understand how man, consisting of a vast yet always inherently orderly complex of wave angles and line frequencies, might be scanningly transmitted from any here to there by radio.) |
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515.15
Complementary Angles
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515.20
Energy
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515.31
In closest packing of spheres, frequency is the number
of spaces between the
balls, not the number of balls. In closest packing,
frequency is equal to radius.
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515.32
Electromagnetic frequencies of systems are sometimes
complex but always
constitute the prime rational integer characteristic
of physical systems.
(See Secs. 223.41
and 400.50.)
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515.33
Wave magnitude and frequency are experimentally interlocked
as
cofunctions, and both are experimentally gear-locked
with energy quanta.
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516.01
There are only two possible covariables operative
in all design in Universe:
they are the modifications of angle and of frequency.
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![]() Fig. 516.03 |
516.03
By designedly synchronized frequency of reoccurrence
of their constituent
event patternings, a machine gun's bullets may be projected
through a given point in the
rotational patterning of an airplane's propeller blades.
Such purposeful synchronization of
a succession of alternate occupations at a point, first
by a bullet and then by a discretely
angled propeller blade, and repeat, is called angle
and frequency modulation; together,
they avoid interferences. All physical phenomena, from
the largest to the smallest, are
describable as frequencies of discrete angular reoccurrence
of intimately contiguous but
physically discontinuous events. All physical phenomena
are subject to either use or
nonuse of angular- and frequency-modulating interference
capabilities.
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517.10
Six Interference Resultants
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![]() Fig. 517.10 |
517.101
There are six fundamentally unique patterns of the
resultants of
interferences. The first is a tangential avoidance,
like knitting needles slipping by one
another. The second is modulated noninterference, as
in frequency modulation. The third
is reflection, which results from a relatively direct
impact and a rebound at an acute angle.
The fourth, which is refraction, results from a glancing
impact and an obtuse angle of
deflection. The fifth is a smash-up, which results in
several parts of one or the other
interfering bodies going away from one another in a
plurality of angular directions (as in
an explosion). The sixth is a going-the-same-way, "critical-proximity,"
attraction link-up
such as that established between the coordinated orbiting
of Earth and Moon around the
Sun.
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517.11
Summary of Interference Phenomena
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517.12
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517.20
Tetrahedron of Interferences
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518.01
Though lines (subvisibly spiraling and quantitatively
pulsative) cannot go
through the same point at the same time, they can sometimes
get nearer or farther from
one another. They can get into what we call "critical
proximity." Critical proximity is the
distance between interattracted masses__when one body
starts or stops "falling into" the
other and instead goes into orbit around its greater
neighbor, i.e., where it stops yielding
at 180 degrees and starts yielding to the other at 90
degrees. (See Sec. 1009.)
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518.03
Critical proximity occurs at the precessional moment
at which there is a 90-
degree angular transition of interrelationship of the
two bodies from a 180-degree falling-
back-in to a 90-degree orbiting direction, or vice versa.
(See Sec. 1009.63.)
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518.06
Critical proximity is a threshold, the absolute vector
equilibrium threshold; if
it persists, we call it "matter."
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| Next Section: 519.00 |