
Some questions now come to mind:
How is the chemo-electric energy of a battery [with the aid of an harmonic wire circuit, or waveguide (Tesla)], induced into the filament of a light bulb ?
And finally, what is the origin of this energy that is spatially inducted/conducted, and seen as attracting/repulsing?
Why do two parallel wires “attract or repulse” each other, depending on direction of motion of magnetic flux ?
Why do two parallel wires “attract or repulse” each other, depending on direction of motion of magnetic flux ?
Attraction and repulsion have nothing to do with "energy", they must be caused by force - what is it that could possibly be the cause of the force?
Michael
You are asking the wrong question - energy does not exist it is simply a mathematical abstraction. The only way that anything can happen is by motion - objects in motion have momentum and momentum is transferred by a process referred to as force.
And finally, what is the origin of this energy that is spatially inducted/conducted, and seen as attracting/repulsing?
It seems the answer is no, as they are simply complementary phases of a transmitted energy pattern
and each characteristic Zx will (eventualy) generate its own harmonic.
Also, this is a well established and one can head over to Charles Proteus Steinmetz and note on page 227 that:When traveling wave and stationary waves occur simultaneously, very often the traveling wave precedes the stationary wave. The phenomena may start with a traveling wave or impulse, and this, by reflection at the ends of the circuit, and combination of the reflected waves and the main waves, gradually changes to a stationary wave. In this case, the traveling wave has the same frequency as the stationary wave resulting from it. In fig 47 is shown the reproduction of an oscillogram of the formation of a stationary oscillation in a transmission line by the repeated reflection from the ends of the line of a single impulse caused by short circuiting the energized line at the open end. – Lectures on Electrical Engineering, Volume 2 By Charles Proteus Steinmetz
Why do two parallel wires “attract or repulse” each other, depending on direction of motion of magnetic flux ?
seasmith
Attraction and repulsion have nothing to do with "energy", they must be caused by force - what is it that could possibly be the cause of the force?
Michael
“The magnetic field exerts a force into the conductor; that is, a force which tends to drive the wires apart. The electric field exerts a force out of the conductors; that is, a force which tends to pull the two conductors together.
The forces are F1 = iB, F2 = qE.
…
We conclude that a TEM Wave (which we call a Heaviside signal) glides along between two conductors at the speed of light, there is no force on the conductors guiding the signal.”
[[Except when]] … “when we superpose two TEM waves, something new suddenly appears, a physical force.”

This is why i normally refer to the Inherent Tensegrity of Space ie: aether.
(When reading Bucky Fuller in the 60's, i had no idea what he was talking about. With an EU perspective however, he makes a whole lot of sense.)
In Universe as Computation, the lattice background is a dynamic substratum which co-
evolves with the “things” that live therein. Pre-geometry rules framed by R.
Buckminster Fuller’s synergetic geometry considerations provide geometrical
constraints on the events that evolve within the lattice substrate, and constraints on
the substratum itself. Further, in Universe as Computation, the background substratum
grows/expands from witheverywhere [sic] due to a jitterbug action at all locations in
the substratum where physical events occur. The reality flux (required in modern
quantum mechanical theories of the quantum vacuum for all physical events) drives the
lattice substratum jitterbugging growth. The combination of reality flux, the dynamic
substratum, and Negative Universe form a modern aether upon/wherein/wherefrom all
“things” occur and all physical law is/are manifest(ed).
Noise is ever-present in electrical signals. Some of it arises simply because atoms have heat—they jostle around, knocking into one another. But even when there is no heat—that is, when temperatures have dropped close to absolute zero—noise remains. That's because of a fundamental tenet of quantum mechanics, which says that space is always filled with fluctuating energy, or quantum jitters.
Reducing noise to this quantum limit is out of the league of most electronic amplifiers.... In practice this is difficult, however, because the pitch or energy of the signal photons varies with time, and so the pump photons won't always match.
from the article: wrote:Imagine an AM antenna one–fiftieth of a wavelength long, that needs no radial ground system, occupies a small parcel of land, produces little or no RFI (Radio Frequency Interference), has great bandwidth and performs better than a full–sized vertical radiator.
Does this sound like a fantasy?
Until recently, it would have been.
Now working models of such an antenna exist in the Middle East and at NAB99 (National Association of Broadcasters' 1999 Convention in Las Vegas — TRC — ).
( The "reversed form" (negative solution) of Maxwell's Fourth Equation, states that a magnetic field can be produced without current flowing in a wire. — TRC — )
Abstract|The present paper is a work on °uorescent tube performing
the function of a monopole plasma antenna. In the construction, the
needed power supply to the °uorescent tube is controlled by an IC
555 timer. In the experiments the supply frequency varies from 25 Hz
to 200 Hz. By using a vector network analyzer it is shown that the
persistence of plasma developed inside the tube persists for longer
duration with increase in supply frequency. It is also found that the
stability of resonant frequency increases with the increase in frequency
of the AC power supply measured up to 200 Hz. Result shows that the
e®ective part of a °uorescent tube functioning as Monopole plasma
antenna is about 60% of the total length of the tube.
4. RESULTS AND DISCUSSION
4.1. Return Loss Measurement
The persistence of plasma and the antenna behavior of plasma can be
enhanced by increasing the frequency of the applied AC voltage [1]. It
is found that increase in frequency increases the duration of stable
conductivity in the plasma column. This behavior can be studied
with the help of a network analyzer which displays the return loss
characteristics of plasma antenna. The return loss characteristics of the
plasma antenna at varying supply frequencies (from 25 Hz to 200 Hz)
are clearly shown by the Figures 5, 6, and 7. In all these results, the
return losses observed through network analyzer range from 10MHz
to 900 MHz.
As electrons move past atoms in a solid, their charge distorts the nearby lattice and can create a wave. Reciprocally, a wave in the lattice affects the electrons motion, in analogy to a wave in the sea that pushes a surfer riding it. This interaction results in a thermoelectric effect that was first observed during the 1950´s and has come to be known as phonon-drag, because it can be quantified from the flow of lattice-wave quanta (phonons) that occurs over the temperature gradient.
Soon after the discovery of the phonon drag, an analogous phenomenon was predicted to appear in magnetic materials: the so called magnon drag. In a magnetic material the intrinsic magnetic moment or spin of the electrons arrange in an organized fashion. In ferromagnets, the spins maintain a parallel orientation. If a distortion in the preferred spin orientation occurs, a spin wave is created that could affect electron motion. It is therefore reasonable to expect that the flow of magnons (spin-wave quanta) could also drag the electrons.
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