mirror of
https://github.com/nhammer514/textfiles-politics.git
synced 2024-10-01 01:15:38 -04:00
176 lines
11 KiB
XML
176 lines
11 KiB
XML
<?xml version="1.0" encoding="UTF-8"?>
|
|
<xml>
|
|
<div class="article">
|
|
<p> Here is explained a new kind of resonance: scalar EM resonance, or
|
|
electrogravitational resonance. </p>
|
|
<p> First, imagine we have a standard resonant cavity. In this cavity we
|
|
have a resonant EM wave moving back and forth. In accordance with convention,
|
|
the E-field vector and the B-field vector are at right angles in this moving
|
|
wave front. As the wave moves back and forth, the vectors vary back and
|
|
forth; however, at any one point between the walls, the two vectors always
|
|
have the same value. Thus our resonant EM wave forms a standing wave in the
|
|
cavity. </p>
|
|
<p> Now imagine that a second wave front, precisely like the first and of
|
|
the same frequency, is superposed over the first one and travels with it.
|
|
This second wave -- the "antiwave" -- has its force vectors 180 degrees out
|
|
of phase with the force vectors of the reference wave. Hence the E-fields
|
|
and B-fields of the two superposed waves always sum to vector zeros, anywhere
|
|
in the cavity. To an external observer, the cavity contains no ordinary
|
|
electromagnetic force fields, hence no ordinary EM energy. </p>
|
|
<p> However the energy density of a single EM sine wave in vacuum is given
|
|
by:</p>
|
|
<p> density 2
|
|
[ E + B ]/8pi
|
|
|
|
This energy density is always positive. Hence the energy density of the
|
|
two waves at any point X between the walls is equal to: </p>
|
|
<p>
|
|
2 2
|
|
[ E + B ]/4pi
|
|
|
|
where
|
|
|
|
E=E(x) ; B=B(x)
|
|
|
|
Thus the energy density of vacuum varies with X. But, rigorously, since
|
|
the resultant E and B fields are zero, this describes a standing
|
|
gravitational wave. Hence we have a standing EG wave existing in the cavity.
|
|
This is an example of scalar resonance. Rigorously the cavity has mass and
|
|
inertia, to an outside observer, as a result of the two warps in spacetime it
|
|
contains. </p>
|
|
<p> Note that in one half cycle the energy density of vacuum is greater
|
|
than ambient, and in the other half cycle it is less. In the region of one
|
|
half cycle, time flows at a faster rate than to the ambient observer, and in
|
|
the other half cycle time flows at a slower rate than to the ambient
|
|
observer. One half cycle appears to contain negative electrical charge, and
|
|
the other appears to contain positive charge. </p>
|
|
<p> One half cycle appears to contain a north pole (positive magnetostatic
|
|
scalar potential), and the other half cycle appears to contain a south pole
|
|
(negative magnetostatic scalar potential). </p>
|
|
<p> Perhaps n/w one can begin to understand why a continuously accelerated
|
|
orbital electron in the atom does not radiate EM energy, completely in
|
|
violation of <ent type='PERSON'>Maxwell</ent>'s equations. The electron is naught but a complex aspect </p>
|
|
<p> Scalar resonance is not in the conventional textbook.</p>
|
|
<p> Scalar resonance is a particular zero summed multi-resonance,
|
|
electromagnetically, so that it does not act in an electromagnetic manner. </p>
|
|
<p> A scalar resonance is a standing electromagnetic wave. It can be made
|
|
electrically, but is not electrical in behavior.</p>
|
|
<p> In any scalar resonance, spacetime is curved, and it is the magnitude
|
|
(and direction) of this spacetime curvature that is oscillating in "standing
|
|
wave" fashion. </p>
|
|
<p> In respect to stress of the vacuum medium, one half of a standing sine
|
|
wave of scalar resonance is tensile; the other half is compressive. However,
|
|
this is with respect to the local ambient stress of the vacuum. </p>
|
|
<p> "Mass" of a particle is just a characteristic exhibited by a trapped
|
|
scalar resonance. Usually this trapping is done by the "spin" of the
|
|
individual particle. </p>
|
|
<p> The concept of "mass" may be compared with the concept of
|
|
"capacitance." That is, a mass is an accumulator for scalar waves; that is,
|
|
for scalar resonances. It is continually being "charged" and "discharged"
|
|
by absorption and emission of scalar waves from and to the ambient vacuum
|
|
scalar wave flux. </p>
|
|
<p> Indeed the magnitude of a mass may be defined in terms of the absolute
|
|
value of this "switching" (absorption = switch in; emission = switch out)
|
|
rate. For details on this see (Bearden, T.E. "Quinton/Perception Physics: A
|
|
Theory of Existence, Perception, and Physical Phenomena," March, 1973, AD
|
|
763210, available through NTIS.) </p>
|
|
<p> In the normal linear spacetime, the "charging" and "discharging" are
|
|
equal in all directions; so the mass exhibited in any direction is the same. </p>
|
|
<p> With respect to an "external observer's" equilibrium flux, a moving
|
|
object encounters an increased amount of flux rate along its line of motion,
|
|
just as a moving object in a rainstorm encounters more raindrops per second
|
|
in the direction of its path, than does a stationary object. Encountering
|
|
increased scalar wave flux (with respect to the external observer) forces the
|
|
moving object to absorb and emit scalar waves at a higher rate along its
|
|
direction of motion than when its not moving. Thus to the external observer,
|
|
the mass of the object has increased, insofar as any disturbing force along
|
|
its line of motion is concerned. </p>
|
|
<p> At right angles to its line of motion however, the flux rate is
|
|
precisely the same as when the object is at rest. Therefore the "mass" of the
|
|
moving object with respect to any disturbing force at right angles to its
|
|
line of motion has not changed, as seen by the external observer. </p>
|
|
<p> Thus is explained both parts of one of the all time great mysteries of
|
|
special relativity: (1) how the mass of an object increases with respect to
|
|
its motion, and (2) why the mass only increases with respect to its line of
|
|
motion, and not at any right angles to it. </p>
|
|
<p> The inertia of a particle is due to its mass, i.e., to the total
|
|
magnitude of its trapped scalar resonance. </p>
|
|
<p> The gravitational attraction between two masses is due to their
|
|
spacetime curvature. Further, mass is like a capacitance. It can trap
|
|
additional scalar waves as trapped resonance; hence increase its magnitude or
|
|
"inertial charge". Or, it can discharge more scalar waves than it absorbs;
|
|
hence decrease its magnitude or "internal charge"... </p>
|
|
<p> Those scalar waves emitted from resonance are emitted as a pattern
|
|
ensemble of the resonance. Hence they may be regarded as constituting a
|
|
current of scalar resonance leaving the mass accumulator object. Scalar waves
|
|
absorbed into trapped resonance may be regarded as constituting a current of
|
|
scalar resonance into the mass accumulator object. Thus it is proper to speak
|
|
of scalar resonance as being able to "flow". </p>
|
|
<p> Further, it is possible to increase the mass of an object directly, by
|
|
transmitting scalar EM waves to it so that it absorbs them. (By absorbing
|
|
scalar waves one means that more enter the object than leave it, so that the
|
|
object acts as an internal accumulator charging up with internal charge. This
|
|
is done by insuring the reference potential of the scalar wave transmitter is
|
|
higher than the reference potential of the irradiated object.) </p>
|
|
<p> It is also possible to decrease the mass of an object directly, by
|
|
transmitting scalar EM waves to it so that it emits more than it absorbs. (By
|
|
emitting scalar waves one means that more leave the object than enter it, so
|
|
the object acts as if it were an internal accumulator that is discharging its
|
|
internal charge. this is done by insuring that the reference potential of the
|
|
scalar transmitter is lower than the reference potential of the irradiated
|
|
object.) </p>
|
|
<p> As can be seen, the scalar wave "transmitter" is actually somewhat
|
|
comparable to a heat pump; it can either act as an "energy transmitter" or as
|
|
an "energy extractor", depending on the difference in potential between
|
|
"transmitter" and "receiver." </p>
|
|
<p> Scalar resonance can have a specific pattern: both in frequency and in
|
|
spatial curvature aspects, as well as "rate of flow of time" aspects. Indeed,
|
|
scalar-wise every object has its individual "scalar pattern" which is a
|
|
unique fingerprint. Since that print is spatiotemporal, it is a product of
|
|
that objects entire past history. Thus --scalar wise-- no two objects are
|
|
identical. </p>
|
|
<p> This brings up another rather amazing potential: If a reasonably
|
|
precise scalar pattern of an object can be "irradiated" and resonated with
|
|
scalar waves, energy may be created in or extracted from the distant object,
|
|
just as stimulating one tuning fork can excite another at a distance by
|
|
sympathetic resonance. I leave it to you to ascertain the relavence of this
|
|
statement to clairvoyance, radionics, remote viewing, etc.</p>
|
|
<p> For the skeptic, however, we must point out that --rigorously--quantum
|
|
mechanics requires that, continually, in any localized region of spacetime,
|
|
the "pattern" of any object in the universe appears momentarily in the
|
|
virtual state, purely from statistical considerations alone. So long as the
|
|
situation remains statistical, any place in the universe can continue to have
|
|
the "ghosts" of everything present there, in an ethereally thin pattern, and
|
|
the observable world will not be affected by it. However if one can
|
|
discriminate and scalarly "charge" or "discharge" individual patterns in this
|
|
"ghost-realm", action at a distance is directly possible, as is
|
|
materialization and dematerialization. If one accepts that even thought
|
|
itself produces such virtual "ghost-patterns" in the virtual particle flux of
|
|
vacuum, then it is at least theoretically possible to materialize thoughts
|
|
and thought images.
|
|
</p>
|
|
<p> We have entered a new kind of reality where the old rules and the old
|
|
limitations do not necessarily apply. </p>
|
|
<p> As pointed out, we can greatly simplify matters by considering
|
|
'currents of scalar resonance'. These currents flow from higher potential to
|
|
lower potential, regardless of whether we are considering "transmission" or
|
|
"reception". </p>
|
|
<p> Indeed, to transmit at lower potential is to receive, and to receive
|
|
at higher potential is to transmit. Thus the "transmitter-receiver" is a
|
|
special system where simply biasing two nodes differently determines which
|
|
way the scalar resonance will flow. We may increase or decrease an object's
|
|
inertia and mass, simply by properly biasing the transmitter-receiver's two
|
|
nodes.</p>
|
|
<p> In one accidental experiment of some hours duration, Golden charged
|
|
up an area so that, locally, all clocks became erratic. This included
|
|
electrical clocks, battery driven watches, wind up kitchen clocks, and a
|
|
pendulum operated grandfather clock. The rate of flow of time itself was
|
|
apparently altered in the local area by the accumulated charge, which took
|
|
four days to drain off and discharge. At the end of four days of discharge,
|
|
all clocks and watches returned to normal.
|
|
|
|
(Continued)
|
|
</p>
|
|
</div>
|
|
</xml>
|