The Master Of Magnetics "Steven Mark"

[gn0stik]

I believe it's this one. I'll explain why below.

c1c1c1c1c1c1xxxxxxxxxc1c1c1c1c1c1c1
c1c1c1c1c1c1xxxxxxxxxc1c1c1c1c1c1c1
c2c2c2c2c2c2xxxxxxxxxc2c2c2c2c2c2c2
c2c2c2c2c2c2xxxxxxxxxc2c2c2c2c2c2c2
c3c3c3c3c3c3xxxxxxxxxc3c3c3c3c3c3c3
c3c3c3c3c3c3xxxxxxxxxc3c3c3c3c3c3c3

SM said they were stacked one on top of the other(paraphrase). The mental orientation of the coil I have in my head when I think of it is laying flat on a table. He would have said side-by-side, or concentric otherwise.

In the case of option C the coil would be short and wide, and the collector coils and the kick coil would be of varying diameters, making tuning difficult. You could probably get it to pump out something but nothing like in the videos.

The TPUs in the video are all thin and tall suggesting stacked coils of a common diameter.

Version B in my opinion is straight out. Nothing with it jives with what we've studied or learned, even remotely.

Now I'm guessing we need to figure out how they are wound, if in fact this is the right arrangment.

Dr. Schizinger said they were "cicumferentially" arranged. I'm thinking the collector coils (c1 and c3) are wound straight around the outside circumference of a round form, creating the toroid with the windings themselves.. This would also explain to a degree the rotating magnetic field as the electrons would have to travel straight around the the coil creating a uniform magnetic field that would emanate from the around the outside, inside, above, and below, all at once, perpendicular to the coil, and travel with the electron flow. The coils could then be wrapped around the outside, and through the center of the toroidal collector coil wrapping it with the "control wiring".

A long spiral winding that is wound around the diameter of the thickness of the coil might create a similar effect, but the field would be slightly canted depending on it's position around the coil.

The problem with this arrangement would be that there would be no core to speak of on the collectors. Just a form to wrap the windings around. Perhaps the "cork like material" was just an insulating spacer between the collectors and receiver/kick center coil (c2).

Once these are all wrapped with control wiring, they would be stacked, and the entire coil portion of the unit could be wrapped likewise.

Going back through the old posts by mannix, I found this.

"one was about 100 mm in diameter the other about 450mm. The small device generated a few hundred watts and the larger device 1 kilowatt." - This is from mannix's first post. An estimate of size. I'm not sure how he could be so sure of the sizes, perhaps because of items in the vicinity of the TPUs. But it gives us something to go on.

The Thickness and height of the medium unit's coil is similar to the large one, which makes me think it's an exact division of the larger one.

Damn i've been busy. No time to wind anything myself yet. In the mean time, i've been going over the videos and scouring old posts for clues.


That's all I have for now, I just had to get it down as a coherent thought before I moved on. This place has become a sort of notebook to me.

[HMM]

I came across this link while researching mag amps

Magnetic Resonance Amplifier
http://www.totse.com/en/fringe/free_energy/zpe_mra2.html

"If the rhythmic energy flowing through the mass is made resonant to the mass aggregate resonance, you further reduce the resistance and impedance, thereby achieving unity and in some cases overunity." Vanguard Note  Joel McClain

[bob.diroto]

Would I be right in thinking in the SM arrangment we've just been given, that if I pulse one frequency into one coil and another frequency into another coil that within the empty space in the center of the toroid we would get a superposition of magnetic and electric waves ?

On this assumption, this java applet allow a good visualisation of what sort of resulting waveform will occur for sin waves of various amplitude and frequency.

http://www.phy.ntnu.edu.tw/ntnujava/viewtopic.php?t=35
(Having changed the values in the text boxes hit RETURN key to change the animated waveform display)

Of particular interest are:

1. Standing waves where both frequencies are the same but direction of travel is in opposite directions.
To achieve this using two coils, the coil circumference has to be whole number related to wavelength of the chosen frequency. AND if both coils are wound in the same direction the top of each coil need to be connected to the bottom of the other coil AND then driven in parallel.

2. Where one frequency is a whole integer multiple of the other. Notice how the standing wave appears to move.

3. Where one frequency is very slighly different from the other.


Increasing the ramp-up and ramp-down time of a sqaure wave. You'll notive in the above animation that when two opposing waves meet, it increases the ramp-up and ramp-down times. We could use this to our benefit to make square waves with increasingly sharp ramp-up/ramp-down times.

This allows you to play with combining many sin waves (fft theory) and visualise what happens when a square wave is superpositioned with a cosine wave.
http://www.phy.ntnu.edu.tw/ntnujava/viewtopic.php?t=33


Why am I highlighting these things ? Although an oscilloscope is going to show you what you have, nothing beats trying to gain some intuition, as to what combination of waveforms is going to get you nearer to some of the criteria Steven has mentioned.

[gn0stik]

Remember that it also depends on how we arange them as well, If the top and bottom collectors are connected in series, and the middle coil is parallel to both of those, we can't really pump in frequencies from either direction without changing polarity. Unless you have more than one connection to them, in order to do it.. (Remeber steven saying "I tried it, and it works!") This is because they are essentially one long wire making two coils.

As to your video Tao, that's pretty interesting. That's the kind of effect I was expecting to see, with the magnetic field causing inductance into the center coil as it spun around the toroid directionally. Kind of reminds me of those socks I got for xmas last year, that I never wear, though.

[Lance]

Regards toroids and motional fields...

Please has anyone performed an experiment to rotate a magnetised core inside a simple toroid at a constant speed (i.e. simulated moving flux). Can anyone answer if this would cause a DC voltage to appear at the coil wire ends?

If the flux is contained within the core as you would expect - wouldn't you avoid any back emf. effects when tapping current?

If the answer to these questions if affirmative - then could we not replace the spinning core with a motor winding inside the toroid and tap DC power?

These questions have been bugging me for a while...