Will be posting videos soon.

Pioneering the Applications of Interphasal Resonances 
http://tech.groups.yahoo.com/group/teslafy/

--- On Mon, 7/23/12, David Jonsson <[email protected]> wrote:

From: David Jonsson <[email protected]>
Subject: [Vo]:Assymetric Maxwell stress tensors
To: "vortex-l" <[email protected]>
Date: Monday, July 23, 2012, 8:39 AM

Are there any?
It seems like a big shortcoming if there aren't any.
David
David Jonsson, Sweden, phone callto:+46703000370

 Simply put when torsion is extreme enough, the vectors of normally 
perpendicular forces such as electricity and magnetism may become almost 
parallel;they undergo a kind of "distant parallelism" brought about by such 
extreme warping of space.  Depending upon the amount of torsion, those vectors 
may not necessarily be perpendicular any more, but deviate slightly or greatly 
from such perpendicularity.

    pg 34/ Top Secret Torsion/Secrets of the Unified Field/ Joseph Farrell

    http://www.flickr.com/photos/harvich/4138926072/
    2009 Flux Capacitor Model

    E X B embodiments on separately phased resonances
    The Flux Capacitor is a spatially interacted electrical resonance. 
Resonance is the balancing of magnetic and electrical fields to contain equal 
field energies, where expression of this energy uses a coil for the magnetic 
flux, and a capacitor for the electric field energy. Normally these two 
different field energies exist in separate space, and because they oscillate 
they also exist in separate timings, whereby when one field is full the other 
is empty. The first premise of the flux capacitor is to Tconstruct a device 
whereby the vessels containing each energy expression themselves can exist in 
the same space at right angles, thereby creating a third reaction force to be 
obtained in the remaining third angle in space, here to be obtained by 
non-magnetic stainless steel rods protruding from the water capacitor. The aim 
here is to split the water molecule into oxygen and hydrogen fuel with the 
minimal amount of energy. Two 90 degree phased flux
 caps can share timings of field energy which is the goal of these endeavors, 
where the magnetic field from one resonance can be spatially interacted with a 
concurrent electric field from another separately phased resonance.

    http://www.flickr.com/photos/harvich/4138199465/

    Axially Insulated Water Capacity in 465 hz Resonance
    This shows the effect of just the electric field resonating from the right 
coil at 2700 volts on a hand held grounded neon bulb. Notice that the end 
connection of the neon need not touch the central electrode of the water 
capacitor; the electric field energy passes through space itself. The input 
voltage is obtained from a mere 7 volts obtained from an AC car alternator 
rotating at a constant rpm to output 465 hz. To achieve the higher voltage 
output shown here a first stage of resonance is employed which multiplies the 
initial voltage 15 fold. These comprise two 500 ft wire spools of 14 gauge wire 
stacked in series; ~ 23 [email protected] ohms using 5 uf for 465 hz resonance. This first 
stage of series resonant rise is necessary to achieve any appreciable amperage 
through the secondary (interphasal) resonance to be formed into a flux 
capacitor principle, whereby this then increases the voltage almost another 17 
fold. Each of the ending flux capacitor
 components are 180,000 ohms impedance at this frequency. The coils contain 
almost 8 miles of 23 gauge wire. An AC alternator is used to obtain the needed 
higher frequency to enable the resonances to spatially exist inside each other, 
which then involves special circumstances. Since every changing electric field 
also appears out of phase as a changing magnetic field according to the 
derivative of the electric field's rate of change in time, induced currents can 
be measured when a second coil is employed to surround the axial capacity 
employed as the first resonance to be engaged, which is shown here without the 
addition of the second resonance in the three phase triangle. It is found that 
the induced currents due to induction via spatially enclosed capacity inserted 
into the coils interior volume: that this value comprises 2/3 the amount of 
current registered when the interphasing is given its actual separately phased 
line connections. The second
 resonance uses an ordinary spatially separate plate plexiglass capacity.
    Essentially this second large coil in the 60 Henry range @ 840 ohms can be 
preliminarily tuned to the spatial influence of the initial resonance; however 
during this tuning where L2C2 has its capacity varied as a shorted loop 
formation, an amperage meter can be enclosed in this loop to find the point of 
highest power transfer. It this scenario cyclic or time varying amperages can 
be found. Apparently when a new resonant point is sought, the circuit may 
respond very slowly to the new point of resonant conduction. This makes noting 
the amperage quantities difficult when for cyclic cases where this amounts to 
measuring something that is not constant in time, but yet it may be cyclic in 
repetition of those changes. When L2C2 is tuned and disconnected, and then 
reconnected as a shorted loop to exhibit induction currents as a shorted loop: 
the initial resonance as the primary will decrease from 2.7 ma to 2.3 ma, but 
the secondary amperage will increase
 to 1.2 ma, where these values may take 30 seconds or so to assume themselves.

    http://www.flickr.com/photos/harvich/4609480576/

    To fathom what the spatial changes to the circuit will do may not first be 
apparent. The axial water capacity will act just like an interior coil, in that 
it will induce currents and voltage by induction. The assymmetry may not be so 
evident, but each of the interior circuits will have different currents if the 
polarity of their inputs are reversed.  What  currents may go up by spatial 
interaction, do not go down by an equal amount, as found in single phase 
observations of mutual induction effects. In the above schematic it is noted 
that at a certain level the interphasal currents are in the ratio 2.7/1.7. Now 
if the voltage were to be increased to a larger level, this same initially 
observed ratio may not be evident. One side may work better then another again. 
Why this ratio change was evident at higher levels which caused the water to 
"pucker at the edges" and in a simpler version emit a hummed ringing sound is 
that now under the additional
 stress the electric field interacting with the magnetic field containing it, 
has become "less perdendicular" to its partner, and that component of the 
currents found on each phase is thereby lessened. Other examples of torsional 
effects by smaller components are evidenced in recent phase angle observations 
of both a krypton bulb discharge and the same voltage source powering a bipolar 
tesla coil. In these cases it becomes easy to show conditions for a 3D space 
time curvature made for both 1/5th   bulb discharge and 1/4 time contraction 
for TC arcing. It stands to reason that since the mechanism for missing time is 
now understood to be a consequence of the tuned air core secondary transmission 
itself. It then forms a new R(int) value with respect to the load of the arcing 
distance. It is readily seen that the greatest efficiency is made with the 
greatest amount of secondary amperage circulation; and when a third pathway for 
load currents is made, this
 represents a diversion of current from the resonant LC loop. As that 
consequence the primary again consumes more current, and less efficiency.



Reply via email to