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SWEET4D.ASC
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26. Energy should not be defined as the capacity to do work;
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that is wrong. Accomplishing translational work is
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something that can be done by dispersing energy (order), but
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that is not its definition.
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Energy is any ordering, either static or dynamic, in the
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virtual particle flux (VPF) of vacuum.
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Work is just the scattering of energy __ the disordering of
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this VPF order. Note that the present definition of energy
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used in physics thus is a statement that "order is the
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(capacity to do) disordering of order." In that form, the
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illogical aspects of the statement can be seen. It is still
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correct, however, to state that "energy has the capacity to
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do work. Certainly, if you scatter or disorder the order,
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you will have disorder. With the word "has" substituted for
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||
"is," the sentence becomes just a statement about energy; it
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is not posing improperly as its definition. However, it now
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requires that a new definition for "energy" be found. The
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new definition was presented above.
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Electromagnetic energy is any ordering, either static or
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dynamic, in the virtual photon flux of vacuum. In other
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words, for a field energy, one selects __ for the ordering
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__ only the type of particle in the VPF that is the quantum
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particle of that field.
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A potential is any ordering, either static or dynamic or
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combination thereof, in the virtual particle flux of vacuum.
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Note that, according to this definition, a potential is pure
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energy, a priori. It is also totally ordered internally __
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which is a new concept for physics. But we must be careful.
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Because of the nature of the virtual particle flux
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comprising it, the potential is a collection of nearly
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individual virtual energies __ a collection of the
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individual energies of a host of individually moving virtual
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particles. Each particle is still almost totally separate
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from each other, most of the time. In other words, as an
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informal analogy, potential is a sort of mostly
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disintegrated energy, which only has just a touch of
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integration, enough to allow it to be referred to as a
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Page 1
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single "collection" or "ordering." Note also that the
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ordering itself is an open system. Virtual particles are
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continually entering, leaving, or appearing and disappearing
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in it. The ordering is like a whirlpool in a river: The
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form or ordering may be stable, but the water molecules are
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continually passing through the stable, ordered form.
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A scalar potential is any static (stationary) ordering in
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the virtual particle flux of vacuum. A vector potential is
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any dynamic (nonstationary) ordering in the virtual particle
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flux of vacuum. Note that both scalar and vector potentials
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have totally ordered interiors. Scalar potentials and
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vector potentials are simply different subsets of the energy
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domain. And notice that both are simply stable forms in a
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dynamic medium, like two swirls in a river. So to speak,
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one swirl is stationary with respect to the observer on the
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bank; however, internally it is quite highly dynamic, with
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water molecules continually flowing into and out of the
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stabilized form. The second swirl is moving with respect to
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the observer on the bank; however, internally it also is
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quite highly dynamic internally, with water molecules
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continually flowing into and out of the stabilized form.
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The difference here is whether or not there is movement of
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the stable exterior form with respect to the observer. Both
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are open systems, continually being supplied with energy
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flowing in, and continually emitting energy. Also note that
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both kinds of EM potentials possess ordered internal
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Whittaker bidirectional wave structures.
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An electrostatic scalar potential is any static (stationary)
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ordering in the virtual photon flux of vacuum. Its ordered
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structure is an ordered lattice of spacetime/vacuum, and
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consists of a Fourier expansion of harmonic transverse EM
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plane waves, coupled to the phase conjugate of the expansion
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in 1:1 ratio. Scalar interferometry between two or more
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scalar EM potentials is just the multiple simultaneous
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interferometry of the constituent Whittaker waves.
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Incredibly dynamic interference of
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potentials/vacua/spacetimes from all the charged particles
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of the universe is continually occurring in "the" ambient
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vacuum __ that is, in the quantum mechanical vacuum. The
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quantum mechanical vacuum concept is just the modification
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of the classical "empty vacuum" concept to take into account
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the spontaneous creation and annihilation of virtual
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particles, required by quantum mechanics and the Heisenberg
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uncertainty principle.
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"A" vacuum is a spacetime and, to first order, a scalar
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potential. "The" ambient vacuum is a violently changing and
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interfering collection of potentials from moving particles
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all over the universe; i.e., "the" ambient vacuum is really
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an incredibly large number of conglomerated, interfering
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vacua/potentials. The conglomeration implication for
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vacuum/spacetime of these definitions, or of the gist of
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them, has previously been pointed out by W. Misner, K.S.
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Thorne and J.A. Wheeler, Gravitation, 1973, p. 399.
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Quoting: "...The terms 'gravitational field' and 'gravity'
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refer in a vague, collective sort of way to all of these
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entities. Another, equivalent term for them is the
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Page 2
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'geometry of spacetime.'" Our comment is as follows: In
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other words, the notion of the geometry of spacetime is also
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a vague, conglomerated concept, and it also must not be
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primary, but must be composed of other field effects and
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things __ which of course is Sakharov's hypothesis that
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gravitation is not even a primary field of nature, but is
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always due to interactions and effects of other fields.
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The above definitions are all precise. To the best of my
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knowledge, most of them have not previously appeared in
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physics in such an exact form. To explain why more precise
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definitions are so important, we quote a statement by
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Einstein: "...the scientist makes use of a whole arsenal of
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concepts which he imbibed practically with his mother's
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milk; and seldom if ever is he aware of the eternally
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problematic character of his concepts. He uses this
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conceptual material, or, speaking more exactly, these
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conceptual tools of thought, as something obviously,
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immutably given; something having an objective value of
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truth which is hardly ever, and in any case not seriously,
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to be doubted. ...in the interests of science it is
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necessary over and over again to engage in the critique of
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these fundamental concepts, in order that we may not
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unconsciously be ruled by them." Quoted from Albert
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Einstein, "Foreword," to Max Jammer, Concepts of Space: The
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History of Theories of Space in Physics, Harvard University
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Press, Cambridge, Massachusetts, 1969, p. xi-xii.
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27. See Richard P. Feynman, Robert B. Leighton and Matthew
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Sands, The Feynman Lectures on Physics, Addison-Wesley, New
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York, Vol. I, 1963, p. 2-4 for a statement that the electric
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field exists at a point in the vacuum in the context of its
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potentiality for producing a force, should a charge be
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placed at that point. Maxwell's original theory was modeled
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on a mechanical ether, where the ether was a material
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medium. If that were truly the case, then force-fields
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would exist in the material-ether medium. Accordingly, they
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were so modeled by Maxwell. With the subsequent elimination
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of the material ether, Maxwell's EM force-in-the-material-
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ether model was rendered incorrect, but the model has never
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been recast, to this date.
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28. Calculations of the energy density in the vacuum range to
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enormous values on the order of 10exp100 grams per cubic
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centimeter, expressed in mass units. To convert this mass
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density to energy density, simply multiply by the square of
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the speed of light.
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29. Recall again Feynman's statement. In the vacuum, one just
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has a force-field-free gradient in the potential until one
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places an observable charge in there for the potential
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gradient to couple to. With such charged particle(s) in
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place, the local interaction and coupling of the potential
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gradient with the charged particle(s) produces (and in fact
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constitutes) an electromagnetic force field.
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30. Notice that, considering the electron gas as a fluid, a
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longitudinal pressure gradient does move nearly instantly
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down the wire, without concomitant electron movement as
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Page 3
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||
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longitudinal current. So the potential gradient does race
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longitudinally down the wire at nearly the speed c. In our
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||
detectors and instruments, however, we still detect the
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lateral electron precession waves, however. Obviously we
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||
need some instruments of greater subtlety.
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31. For an explanation of the electron drift velocity, see any
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good sophomore physics text. E.g., see David Halliday,
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Robert Resnick, and John Merrill, Fundamentals of Physics,
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Third Edition Extended, Volume Two, John Wiley & Sons, New
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||
York, 1988, p. 649-650. The effective or averaged velocity
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||
of the electrons in the electron gas in a copper conductor,
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||
e.g., may be about 1.6 x 10 exp 6 meters per second, where
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the electrons are considered as free particles in a gas.
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However, when an electric field is applied to the conductor,
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the average velocity of the electrons down the wire may be
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only about 4 x 10 exp(-5) meters per second. This field-
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induced motion down the wire is many orders of magnitude
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less than the average velocity of each moving electron
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(without respect to its direction). As can be seen, the
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electrons just gradually "drift along slowly" down the wire
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on the average, fully justifying the term "drift velocity."
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Most of the movement of the electrons in the wire is in a
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radial (precession) direction.
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32. The change in potential that travels down the wire is in
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||
fact a change in the intensity of the local vacuum's virtual
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photon flux exchange with the atoms of the wire,
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particularly with their atomic nuclei. It is this VPF
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||
exchange between vacuum and nucleus (and to a far lesser
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||
extent, between vacuum and the electrons) which is the
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||
"medium" for the true signal. Thus the signal is simply a
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traveling change in the vacuum/atom VPF exchange
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"potential", with only a slight delay due to interaction
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with the charges in the nuclei. The signal is primarily a
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||
change in the virtual state conditions, rather than in the
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observable state conditions. However, to "observe" this
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||
signal, the embedding or "coupling" interaction of the
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traveling potential gradient with the conduction electrons
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is important. This coupling produces translation force
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fields, i.e., acceleration changes in the translating
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electrons. We actually detect these electron translation
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||
changes. In other words, we actually detect electron
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wiggles, and infer or assume what must have been in the
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vacuum to interact with the electron gas and cause its waves
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or "wiggles." It is strongly accented that any detector
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detects only its own internal change; it detects nothing
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"external" at all.
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33. Tesla was adamant that EM waves in the vacuum were not
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Hertzian, but were waves of rarefaction and compression, as
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are sound waves. For example, see Nikola Tesla, "Pioneer
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Radio Engineer Gives Views on Power," New York Herald
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||
Tribune, Sep. 11, 1932. Quoting: "...I showed that the
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universal medium is a gaseous body in which only
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||
longitudinal pulses can be propagated, involving alternating
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||
compressions and expansions similar to those produced by
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||
sound waves in the air. Thus, a wireless transmitter does
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||
not emit Hertz waves which are a myth, but sound waves in
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Page 4
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the ether, behaving in every respect like those in the air,
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||
except that, owing to the great elastic force and extremely
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small density of the medium, their speed is that of light."
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In a later article, "The True Wireless," Electrical
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Experimenter, May 1919, p. 87, Tesla wrote: "...The Hertz
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wave theory of wireless transmission may be kept up for a
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||
while, but I do not hesitate to say that in a short time it
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will be recognized as one of the most remarkable and
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inexplicable aberrations of the scientific mind which has
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||
ever been recorded in history." Four years before E.T.
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Whittaker's epochal 1903 paper describing the internal
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structure of the scalar potential as consisting of a phase-
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locked harmonic series of special bidirectional EM standing
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waves, Tesla experimentally discovered the "standing
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potential waves". On July 3, 1899 and on through the
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evening into the morning of July 4, Tesla observed standing
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potential waves from a traveling thunderstorm, even after
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the storm had traveled a distance of several hundred miles.
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He recorded this significant discovery in his laboratory
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notes on July 4, 1899. See Nikola Tesla, Colorado Springs
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Notes 1899-1900, Nolit, Beograd, Yugoslavia, 1978, p. 61-62.
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In his magnifying transmitter, Tesla was not depending upon
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ordinary Hertzian waves, or earth-ionospheric duct
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||
transmission of power. These would not allow magnification
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of the power worldwide. For example, in Nikola Tesla, "My
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Inventions: Part V. The Magnifying Transmitter," Electrical
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||
Experimenter, June 1919, p. 176, Tesla stated that "...this
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wireless transmitter is one in which the Hertz-wave
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radiation is an entirely negligible quantity as compared
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with the whole energy." On p. 178 of the same article,
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Tesla stated that "The transmitter was to emit a wave-
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complex of special characteristics..." In "The True
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Wireless," Electrical Experimenter, May 1919, p. 29, Tesla
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||
mentioned his use of a unique form of resonance in
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connection with his wireless transmission of energy, by
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stating that one "...must not view it in the light of
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present day science." On p. 62 of the same article, he
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stated that his "...transmission through the earth is in
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every respect identical to that through a straight wire."
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For a direct and "uncommon" explanation of how Tesla's
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magnifying transmitter actually worked, see T.E. Bearden,
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"Extracting electromagnetic energy from the nonlinear earth
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as a self-pumped phase conjugate mirror," Proceedings,
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||
PACE's Third International New Energy Technology Symposium,
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Jun. 25-28, 1988 at Maison due Cityoen, Hull (Ottawa),
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Canada, 1988.
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34. For a comprehensive discussion of ether theories, see E.T.
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Whittaker, A History of the Theories of Aether and
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Electricity, Philosophical Library, New York, 1951. This is
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the same Whittaker whose 1903 and 1904 papers provide the
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||
missing linkage needed to unify EM, GR, and QM today.
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||
|
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35. By Michelson's interferometry experiments to measure the
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speed of light. See R.S. Shankland, "Michelson: America's
|
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First Nobel Prize Winner in Science," The Physics Teacher,
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||
Jan. 1977.
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Page 5
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36. Ironically, a world-renowned Nobel Laureate __ whom I
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greatly admire and with whom I interacted face-to-face for
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about three hours __ was completely unable to comprehend
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that a photon carried time, even though he was quite aware
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||
that its dimensions were energy multiplied by time! He in
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||
fact was adamant that it could only carry energy, not time.
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Many other physicists have exhibited the same bewilderment
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||
when queried on this question. The point is this: It is
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||
not, repeat not, the energy of the photon that is quantized.
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It is the photon's overall action/angular momentum that is
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quantized. Making up the photon, the energy and time
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components are canonical. For stable rate-of-time-flow
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||
conditions, the energy and time in a photon are discretized.
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37. Years ago, we crudely used this to generate a fundamentally
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||
new definition of mass, and also to explain the mechanism
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||
for the "flow of time." See T. E. Bearden,
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Quiton/Perceptron Physics: A Theory of Existence,
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||
Perception, and Physical Phenomena, National Technical
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||
Information System, Report AD-763210, 1973. The paper is
|
||
crude, and should be rewritten when possible. But it gets
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||
the main point across. It also derives Newton's laws of
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motion, relativistic form; the square law of gravitation;
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||
and a new defining equation for mass in terms of trapped
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||
action flux.
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|
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38. Specifically, the photon and antiphoton actually differ
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internally. The photon is composed of (+DE)(+Dt), or a
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piece of positive energy and a piece of positive time,
|
||
welded together without a seam. The antiphoton is composed
|
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of (-DE)(-Dt), or a piece of negative energy and a piece of
|
||
negative time, welded together without a seam.
|
||
|
||
39. Maxwell in fact writes: "There are physical quantities of
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||
another kind which are related to directions in space, but
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||
which are not vectors. Stresses and strains in solid bodies
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||
are examples of these, and so are some of the properties of
|
||
bodies considered in the theory of elasticity and in the
|
||
theory of double refraction. Quantities of this class
|
||
require for their definition nine numerical specifications.
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||
They are expressed in the language of quaternions by linear
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||
and vector functions of a vector." [James Clerk Maxwell, A
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||
Treatise on Electricity and Magnetism, unabridged third
|
||
edition, Volume 1, Dover Publications, New York, 1954, p.
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||
10.] However, even though Maxwell utilized a mechanical
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||
model of the ether, he apparently never focused on the exact
|
||
internal vector patterning of a scalar stress potential as a
|
||
highly significant, engineerable property. On page 30 of
|
||
his Treatise, e.g., he shows three figures illustrating his
|
||
conception of directional actions at a point in space,
|
||
involving vectorial convergence, rotation, and a combination
|
||
of the two. However, I have found no evidence that he
|
||
realized the significance of the precise pattern of the
|
||
internal vector structure of a quaternion multiplication's
|
||
remaining scalar component when the vector or directional
|
||
components of that multiplication interact to a zero
|
||
translation resultant. In other words, I have been unable
|
||
to find any recognition by Maxwell that a zero-vector-
|
||
resultant translation system was highly significant,
|
||
|
||
Page 6
|
||
|
||
particularly in its gravitational implications. However, my
|
||
search of Maxwell has certainly not been exhaustive, and
|
||
evidence to the contrary may yet be surfaced.
|
||
|
||
40. Maxwell's theory is actually some 200-odd quaternion
|
||
equations scattered throughout his 1873 book. See James
|
||
Clerk Maxwell, A Treatise on Electricity and Magnetism,
|
||
Oxford University Press, Oxford, 1873. The third edition is
|
||
by Dover, 1954.
|
||
|
||
41. Whittaker, 1904, ibid.
|
||
|
||
42. There are at least two quite different kinds of zero, and
|
||
mathematics uses the zero concept in two entirely different
|
||
fashions. An example is in arithmetic. When we write a
|
||
number, a zero in a digit's position means the absence of
|
||
any digit there. It means the total absence of any digit
|
||
there. In other words, it corresponds to an "empty set."
|
||
We also use the zero standing alone as "the definite absence
|
||
of any single number." However, here there is a great
|
||
difference, because at the same time it's also the
|
||
indefinite presence of multiple numbers. Specifically,
|
||
e.g., 0 = 3 + 2 + (-5), etc. In our arithmetic operations
|
||
we regularly replace the "zero as absence of any single
|
||
number" by "zero as the presence of multiple numbers whose
|
||
sum is zero." In other words, this type of zero refers to
|
||
absence only of any singular number. In this zero case, the
|
||
sum of a group of two or more numbers that are present can
|
||
be zero, while the numbers still remain. In vectors, of
|
||
course, the directions refer to translations. So a zero
|
||
vector need not be an "empty set." It's an "empty set"
|
||
insofar as use of any single finite translation vector to
|
||
represent the combined finite translations of the
|
||
interacting vectors. None such can be there, because the
|
||
overall system doesn't translate. But the zero vector
|
||
resultant is not an empty set with regards to the actual
|
||
continued presence of the multiply interacting vectors.
|
||
They are still there and, if they represent forces, they
|
||
produce a specifically patterned stress, or stress
|
||
potential. A zero-vector resultant system of finite vector
|
||
components, in vacuum, is a specific template and a specific
|
||
vacuum engine doing continuous internal work on the medium.
|
||
Simply speaking, the total energy in the stress can be taken
|
||
as a function of the sum of the squares of the magnitudes of
|
||
the internal vector components. Note that the internal
|
||
energy patterning, however, is specific both in individual
|
||
magnitudes and directions. So for zero-vector translation
|
||
resultant systems, the system is a scalar stress system __
|
||
non-translating __ in terms of its total magnitude, but that
|
||
scalar stress system is specific in terms of its hidden
|
||
internal translation vector structure. Also, note that two
|
||
stress systems can have identical stress magnitudes (the
|
||
same amount of internal energy), but its internal components
|
||
may vary drastically, both in individual directions and
|
||
individual energies directed in those directions.
|
||
|
||
43. Tesla considered that an electrical charge was carried by
|
||
the electron, but was distinct from the electron itself. He
|
||
considered electricity to be a fluid thinner than any form
|
||
|
||
Page 7
|
||
|
||
of matter, with highly specific properties of its own,
|
||
completely separate from matter. He considered the charge
|
||
of the electron to be due to a surface layer of electricity
|
||
covering it, and it could receive many layers, giving it
|
||
multiple charges, all of which could be dissipated. See
|
||
John J. O'Neill, Prodigal Genius, Angriff Press, Hollywood,
|
||
California, 1981, p. 249-250.
|
||
|
||
44. For appreciable curvature and hence use of the vacuum as an
|
||
appreciable EM energy source or sink, one must alter the
|
||
mass potential of the atomic nucleus. In other words, that
|
||
is where most of the potential energy is, and it has an
|
||
internal Whittaker EM biwave structure which can gradually
|
||
be appreciably activated and altered. See, for example,
|
||
Ingram Bloch and Horace Crater, "Lorentz-invariant
|
||
potentials and the nonrelativistic limit," American Journal
|
||
of Physics, 49(1), Jan. 1981, p. 67-75. When the trapped EM
|
||
energy in the mass potential is altered to a degree of
|
||
notable size with respect to the particle's rest energy,
|
||
ordinary Newtonian mechanics and the Schroedinger equation
|
||
may be inadequate, even if v/c is small.
|
||
|
||
45. E.g., see David Halliday, Robert Resnick, and John Merrill,
|
||
Fundamentals of Physics, Third Edition Extended, Volume Two,
|
||
John Wiley & Sons, New York, 1988, p. 1024. See also
|
||
Chapter 2 of Peter Galison, How Experiments End, University
|
||
of Chicago Press, 1987 for a detailed description of the
|
||
Einstein-de Haas experiment of 1915, and of the related
|
||
experiments that followed it. Also note particularly that
|
||
the suspended static magnet case does not appear to have
|
||
been carefully examined; instead, almost all the work was
|
||
with alteration, or change of the magnetization. I am aware
|
||
of Soviet work, however, that flatly states that a magnet
|
||
carefully and axially suspended vertically develops a
|
||
macroscopic turning moment. See again Halliday, Resnick,
|
||
and Merrill, p. 1024. Is there a cancellation angular
|
||
momentum that cancels the macroscopic angular momentum
|
||
effect? If so, from whence does it come? Can it be evaded?
|
||
Think about it.
|
||
|
||
46. Our approach to scalar EM requires that the value of c be a
|
||
function of the VPF intensity of the vacuum. In fact, some
|
||
of the very best measurements clearly show this fact. See,
|
||
for example, Bryan G. Wallace, "The great speed of light in
|
||
space coverup," Scientific Ethics, 1(1), Feb. 1985, p. 2-3.
|
||
According to Wallace's findings, significant unexplained
|
||
systematic variations exist in all measured interplanetary
|
||
radar data, and the Jet Propulsion Laboratory is apparently
|
||
forced to use empirical correction factors to uphold the
|
||
constancy of the speed of light. See also M.E. Ash, I.I.
|
||
Shapiro, and W.B. Smith, Astron. J., Vol. 72, 1967, p. 72.
|
||
Direct experiments on Einstein's second postulate, in the
|
||
1961 interplanetary radar contact with Venus, challenge
|
||
whether relativity is correct. Variations of over 30,000%
|
||
of the best possible general relativity fit the MIT Lincoln
|
||
Lab could generate were measured. The variations were not
|
||
random but contained diurnal, lunar, and synodic periodic
|
||
components. See also Bryan G. Wallace, "The Unified Quantum
|
||
Electrodynamic Ether," Foundations of Physics, Vol. 3, 1973,
|
||
|
||
Page 8
|
||
|
||
p. 381. Wallace details measurements strongly challenging
|
||
the Einstein assumption of the constant velocity of light,
|
||
and deals with the nature of the ether. Wallace's analysis
|
||
of such data strongly challenging the constancy of the speed
|
||
of light in vacuum has been largely suppressed by leading
|
||
scientific journals.
|
||
|
||
47. The huge collection of charged particles in the mass of the
|
||
earth, and the local scalar EM potential resulting from
|
||
them, results in an ambient vacuum potential in the earth
|
||
laboratory that is higher in magnitude than the ambient
|
||
vacuum potential in deep space far from planetary and
|
||
stellar masses. Just as sound travels faster through steel
|
||
than air, light should travel faster in a hard vacuum in the
|
||
earth laboratory than it does in deep space. Indeed this is
|
||
true. See, for example, B.N. Belyaev, "On random
|
||
fluctuations of the velocity of light in vacuum," [in
|
||
Russian], Izvestiya Vysshikh Uchebnykh Zavedenii, Fizika,
|
||
Vol. 11, Nov. 1980, p. 37-42.
|
||
|
||
48. A.D. Sakharov, "Vacuum Quantum Fluctuations in Curved Space
|
||
and the Theory of Gravitation," Soviet Physics Doklady, Vol.
|
||
12, 1968, p. 1040.
|
||
|
||
49. Thus the probability that a quantum potential will be formed
|
||
between separated electronic systems, etc., is a function of
|
||
the overall signal density of the environment, rather than
|
||
specific signal characteristics. I have previously proposed
|
||
a self-targeting mechanism that directly creates the quantum
|
||
potential, via the hidden Whittaker biwave EM communication
|
||
inside the scalar EM potential. See T.E. Bearden,
|
||
Gravitobiology, Tesla Book Co., POB 12183, Chula Vista, CA
|
||
91912, 1991, p. 33-37. An example of the quantum potential
|
||
effect also apparently happened during the U.S. air attack
|
||
on Libya in April 1986. See Mark Thompson, "Mixed signals
|
||
may have misguided U.S. weapons," The Washington Post, Jan.
|
||
22, 1989, p. A4 for a description of the incident.
|
||
|
||
50. For various papers treating the quantum potential, but
|
||
without any notion of the mechanism that creates one, see
|
||
Quantum Implications: Essays in Honour of David Bohm, Eds.
|
||
B.J. Hiley and F. David Peat, Routledge & Kegan Paul, London
|
||
& New York, 1987. Also, particularly see the various papers
|
||
on this subject in Quantum Concepts in Space and Time, Eds.
|
||
R. Penrose and C.J. Isham, Clarendon Press, Oxford, 1986.
|
||
|
||
51. Floyd Sweet and T.E. Bearden, ibid.
|
||
|
||
52. Paul J. Nahin, Oliver Heaviside: Sage in Solitude, IEEE
|
||
Press, New York, 1988, p. 307.
|
||
|
||
53. For a beautiful consideration of negative energy in a theory
|
||
of gravitation, see Frederick E. Alzofon, "Antigravity with
|
||
present technology: Implementation and theoretical
|
||
foundation," in AIAA/SAE/ASME Joint Propulsion Conference,
|
||
17th, Colorado Springs, Colorado, July 27-29, 1981, New
|
||
York: American Institute of Aeronautics and Astronautics
|
||
Report #AIAA-81-1608, 1981.
|
||
|
||
|
||
Page 9
|
||
|
||
54. For example, see "Nonlinear Forced Oscillations," in Modern
|
||
Mathematics for the Engineer, Edwin F. Beckenbach, Ed.,
|
||
McGraw-Hill, New York, 1956, p. 18-20 for a particularly
|
||
simple and succinct introduction. More complete coverages
|
||
are readily available. Our comment here is that, in the
|
||
graviton theory advanced in this paper, gravitons comprising
|
||
a scalar EM potential are already linked spatially and
|
||
harmonically/subharmonically, to compose a spatiotemporal
|
||
lattice.
|
||
|
||
55. The following references should prove useful: Vlail P.
|
||
Kaznacheyev and L.P. Mikhailova, Ultraweak Radiations in
|
||
Intercellular Interactions, [in Russian], Novosibirsk, 1981;
|
||
Vail P. Kaznacheyev, "Electromagnetic Bioinformation in
|
||
Intercellular Interactions," PSI Research, 1(1), Mar. 1982,
|
||
p. 47-76. [Although the PSI Research journal is now
|
||
defunct, the referenced article in it contains a
|
||
considerable amount of the information referenced in
|
||
Kaznacheyev's book.] See also V.P. Kaznacheyev et Al,
|
||
"Distant intercellular interactions in a system of two
|
||
tissue cultures," Psychoenergetic Systems, 1(3), Mar. 1976;
|
||
Vlail P. Kaznacheyev et Al, "Apparent information transfer
|
||
between two groups of cells," Psychoenergetic Systems, 1(1),
|
||
Dec. 1974; V.P. Kaznacheyev, "Information function of
|
||
Ultraweak Light Flows in Biological Systems," in Problems in
|
||
Biophysics, Novosirbirsk, 1967, p. 7-18 [in Russian].
|
||
|
||
56. For decades the Soviets induced anomalous health changes and
|
||
diseases in personnel in the U.S. Embassy in Moscow,
|
||
utilizing microwave radiation. Studies by Johns Hopkins
|
||
researchers established that the anomalous health changes
|
||
only occurred in personnel located in areas that had zero EM
|
||
force fields. In other words, they occurred only where the
|
||
potentials __ if any __ would have been gradient-free, and
|
||
hence persistent, and without bleed-off. Specific Whittaker
|
||
structures introduced into the persistent potentials could
|
||
directly account for the results, a la Kaznacheyev's
|
||
cytopathogenic effect. Note that, in nonlinear systems, the
|
||
phenomenon of nonlinear resonance would imply that
|
||
subharmonics of the specific Kaznacheyev optical signals
|
||
from damaged cells could be utilized to produce the
|
||
cytopathogenic effect. In other words, microwaves could be
|
||
utilized to produce the same results. See T.E. Bearden,
|
||
Gravitobiology, Tesla Book Co., Chula Vista, California,
|
||
1991 for more complete details, mechanisms, and extensive
|
||
references.
|
||
|
||
57. In the 1960s and 70's French inventor Antoine Priore,
|
||
working with some of the finest French medical scientists,
|
||
positively proved that killer diseases such as cancer,
|
||
leukemia, sleeping sickness, etc. can be cured with
|
||
unorthodox electromagnetics. This was not anecdotal
|
||
material, but rigorous scientific experiments properly
|
||
performed and reported in the French medical journals. For
|
||
a complete resume of the Priore affair, see Jean-Michel
|
||
Graille, Le Dossier Priore, De Noel, Paris, 1984 (in
|
||
French). For a substantial synopsis, see Christopher Bird,
|
||
"Appendix I: The Case of Antoine Priore and His Therapeutic
|
||
Machine: A Scandal in the Politics of Science," in T.E.
|
||
|
||
Page 10
|
||
|
||
Bearden, AIDS: Biological Warfare, ibid. p. 346-375. See
|
||
also Priore references, ibid., p. 333-339. For an excellent
|
||
lay summary of the Priore Affair, with some details of the
|
||
working of Priore's machine, particularly see David M.
|
||
Rorvick, "Do the French have a cure for cancer?", Esquire
|
||
Magazine, July 1975, p. 110-111, 142-149.
|
||
|
||
58. As an example, one eminent French scientist who worked with
|
||
Priore was Dr. Robert Courrier, then Secretaire Perpetuel of
|
||
the French Academy of Sciences, and also head of the Biology
|
||
Section of the Academy. Courrier personally presented
|
||
Priore's astounding results to the French Academy.
|
||
Pautrizel was also another eminent French scientist who
|
||
extensively worked with Priore, and wrote several technical
|
||
papers on the results, and these papers are printed in the
|
||
standard French medical literature.
|
||
|
||
59. See Fritz Albert Popp, "Photon Storage in Biological
|
||
Systems," in Fritz Albert Popp et Al, Eds., Electromagnetic
|
||
Bio-Information: Proceedings of the Symposium, Marburg,
|
||
September 5, 1977, Urban & Schwarzenberg, Baltimore, 1979,
|
||
p. 123-149.
|
||
|
||
60. Aharonov and Bohm, Physical Review, 1959.
|
||
|
||
61. Whittaker, 1904, ibid.
|
||
|
||
62. Specifically, it is absolutely essential to read Morris
|
||
Kline, Mathematics: The Loss of Certainty, Oxford University
|
||
Press, New York, 1980
|
||
|
||
63. See, for example, G. Spencer Brown, Laws of Form, Julian
|
||
Press, New York, 1972.
|
||
|
||
64. See Appendix III: "A Conditional Criterion for Identity,
|
||
Leading to a Fourth Law of Logic," in T.E. Bearden, AIDS:
|
||
Biological Warfare, Tesla Book Co., POB 12183, Chula Vista,
|
||
CA 91912, 1988, p. 428-443.
|
||
|
||
65. Robert Bruce Lindsay and Henry Margenau, Foundations of
|
||
Physics, Dover Publications, New York, 1963.
|
||
|
||
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|
||
|
||
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|
||
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|
||
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|
||
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|
||
|
||
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|
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|
||
|
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|
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