Successful TPU-ECD replication !

[13thHouR]

Fast moving Soliton


Slow Moving Soliton


Collision of Slow and Fast Solitons. In this instance, For the duration of the merge, the two solitons become quantum wave packets (The particles/waves that classical physics allows to propagate at faster than light velocities between a point A to point B, normally referred to as Quantum Tunnelling)



What we are trying to isolate in the TPU's  is the maximum uniform Structure for the propagation of the Solitions. If the coils are incorrectly located, wrong windings or even wrong frequency, This uniform structure will be lost and the Solitons will dissipate.

With the correct carrier frequency to contain the Solitons, they can be sustained in even the most irregular structure.

An efficiency note:
What this basically means the outer and inner collector should be continuous (single piece of dual core wire), not broken wires soldered later. Junctions or connection blocks in the collector setup will disturb the uniform structure needed for the Solitons to sustain themselves and will result in them dissipating outside of the TPU, rather than being contained in the collectors.

Animations with courtesy of : http://physics.usask.ca/~hirose/ep225/animation/soliton/anim-soliton.htm

I am intrigued what would happen if whilst the collectors have already been induced into a cascade of solitons, if the output Solitons of a second TPU was introduced to the existing TPU in the oppossite direction..

We are already aware that opposite collisions Solitons create massive spikes, I wonder if this would be a much easier way to tune the merging compression factor and or the resultant equal and opposite reaction as the Solitions exit the quantum tunnelling state into normal space time.

Effectively using the opposite direction solitons as space time compression (moderators/targets) for each other. 

Although this image represents Two guassian waves travelling in opposite directions the principle is the same


That odd the animation not show, maybe they got anti leech on

Animation with courtesy of: http://www.kettering.edu/~drussell/Demos/superposition/superposition.html

Oh well, it is the first animation on the above page. if you can't see it here.


Increasing compression (density) of the quantum wave packets, will increase the distance between A to B that they can propagate to by non subluminal means.  Basically they can cover larger distances without any resistance in our terms, thus no loss in gained pushing force/ velocity.

The most ideal way of creating these solitons efficiently, would be non uniform low/high frequency wave guides feeding to a uniform one.

In other word's A recreation of this in a TPU form.


Soliton on the Scott Russell Aqueduct on the Union Canal near Heriot-Watt University, 12 July 1995.

For those of you that ask why 3 or more coils/frequency inputs this may explain this for you.




In this one, the sum of the waves creates a short duration, spiked soliton.

 
See what happens to larger stationary one in the latter?

[pauldude000]

Here are some interesting graphics for all to consider. I have been pondering Marks words some more, and these may be interesting to you.

This one deal with harmonics in a manner you are not familiar with. Most think of 1/4 and 1/2 wave as harmonic, when the rise and drop times are actually antithesis to the parent wave, being at opposite polarity at these points. This graphic shows full wave harmonics, which are odd multiples of 1/3, which is naturally reinforcing to the parent wave.
.



Also, in my earlier post I referred to the "Kicks" mark referred to, and also used an example of a "Kick Coil". I have put together a graphic demonstrating these. I made one error on this graphic. The voltage spike or pulse, appears only on one half of each waveform. I am tired, and was using paintbrush ok?





Paul Andrulis

[13thHouR]

Graphics  not showing?

Maybe you have loaded on a site with no cross linking allowed, I noticed the same with one the gfx I linked.

[pauldude000]

I will give some examples, (now that I found my frequency to wavelength converter prog!), of 1/3 harmonic ,multiple resonant frequecies.

For a center frequency of 5khz...

Frequency (to nearest tenth) = wavelength (in feet)

1.66666666666666khz (.0016 mhz) = 590,400  <-- longest wavelength actual 1.6666666666
5khz (.0050 mhz) = 196,800         <-- 1/3 wavelength
15khz (.015 mhz) = 65,600           <-- 1/6 wavelength

This yields a problem, as 1.6666666666666666667 khz is hard to manipulate. You cannot even jump to 1.7, as you lose 11576.47 FEET in wavelength, for one lousy tenth of a khz! The higher the frequency, the shorter the wave, so let us use the mhz band, and find frequencies not impossible to wind due to wire length for full resonance.

Note however that the coil length is more forgiving, though huge, than the frequency in the KHZ range, and that the frequency is more forgiving than the coil length in the mhz range.

Therefore, let us use mhz, in nonfractional frequency multiples.

2mhz = 492    6mhz = 164    18 mhz =  54.66

Now, these are still long wire coils. The question is can they be reduced? The answer is YES, but only to a point. I will explain. You desire for one full wave to be reciprocal in its travel, in that it can both start and reach either maximum potential, or zero potential, at each end of the wire. This is not an antenna, so 1/4 wave actually defeats our purpose. What WILL work is 1/2 wave on each. The collector coils could be 1/4wave to maximize potential, but the control coils MUST NOT BE for resonance purposes.

Therefore 2mhz = 246    6mhz =  82    18mhz = 27.33

Now, for the full wave resonance frequencies of 2,6, and 18mhz respectively, these types of coils will give standing waves, for these specific frequencies in said coil, as the rebounding pulse will match the waveform and potential of the preceding pulses.

If you wish to first try off Q, then reduce each by 5%.

Some thoughts:

Remember that these measurements are in feet, not inches.

You can measure huge lengths of wire, using nothing more complicated than a yardstick.

All coils can be the same length, if you use the longest wavelength. For instance, 18 mhz will resonate properly at 246 feet, but 2 mhz will not resonate properly at 27.33 feet.

DANGER:

My mental imagry just pointed out something. These waves will not quit resonating until they die out due to internal wire resistance. They will also reinforce every other pulse resonating in the circuit. THEY WILL BE SELF AMPLIFYING if my subconscious is correct.

Consider it this way, imagine a series pulses at 5v. Pv(total) = Pv1 + Pv2 + Pv3....... (Q resonance) instead of parallel 1/Pv(total) = 1/Pv1 + 1/Pv2 + 1/Pv3 ....... (off Q resonance)

The amount of gauss developed could well be huge. DO NOT USE AN IRON OR FERRITE CORE, A faraday cage would be adviseable as well. The potential could well rise so great, that the coils could be self destructing. (possibly explosive) The gaussian potential could also rise so great that all iron objects should be removed from the cage, in fact maybe from the room.

This would happen at a geometric rate, so please understand you will not have time to manually shut these down. Safety electronic limiters should be built to protect each coil, and instantly shut off the frequency generator if a given voltage or current is exceeded in the coils. Personally, I would use two limiting circuits, one for each. A "dead man switch", does not give safety or to someone whom is dead. Please do not become so, use your heads.

I would rather be wrong and considered paranoid, then be right and someone get hurt, or worse, so PLEASE BE CAREFULL.

(Your body has quite a bit of molecular and atomic iron in it, and you are quite fragile when considering extremely strong magnetic fields, or high voltages, or various forms of radiation attributeable to either.)

Paul Andrulis

[pauldude000]

@13thhour

It's quite possible. They show for my browser, part of the time. I don't have a clue why. I will repost them in a little bit, after I upload them to a different place.