Spinor resonance -- explanation for TPU like devices

[BEP]

The magnetic field is the conductor. (relating to field forming)

The position of the pulses - or better yet the positional relathionship between the pulses should also be determined based upon the positional relationship between the 'collectors'. The energy passage from one collector to another would be primarily capacitive in the direction of the intended wave. This is still using magnetic fields. If we want water to flow down the drain we must first create a drain and then lead it in the correct direction.
A single loop has nowhere to go unless coiled upon itself or working with another coil.

@Earl

Thanks for inserting those words. I always forget when most think in terms of waves they only think of transverse. When I use the terms it is considering transverse and longitudinal.

As for the GMR. The basic concept is sandwich a conductive layer in two ferrous or ferric layers. Pass parallel or anti-parallel currents through the fe layers to control resistance in the conductive layer. Thanks to Brnbrade I tried the same but using paramagnetic layers sandwiching a copper conductor, in this case a coil and using magnetic 'current' vs. electric current. The best determination I can achieve with old but fairly accurate equipment is that I can stop electric current through the conducting coil or produce a forward curve very similar to a tunnel diode. In effect a magnetic rectifier unlike Tesla. I had a definite arc-over due to weak insulation. I'm rebuilding this weekend to try to reproduce the effect.

[giantkiller]

@Eldarion,
Sweep thru frequencies to see the bands of resonance appearing. Exacerbate the ringing. You should see the ring window widening and shrinking. Really not written about but that is where the true experimentation is played out.

And one can only do this when one builds & experiments. No theory, just smack the copper as fast as you can and get out of the way as fast as you can. To quote quasimoto 'I ring the bell for my master'.

--giantkiller. Bands of resonance? It's a start.

[Grumpy]

Is a magnetic field two opposite spin waves forming a standing wave?

[giantkiller]

I saw the movie 'A sound of thunder'. The key point that was mentioned was 'We spin the particle accellerator faster to create a vortex'.

--giantkiller.

[MarkSnoswell]

@Grumpy
@Giantkiller

Spin and magnetic fileds... let me give an answer to this because it is both simple and profound ...

The electric and magnetic aspects of a spinor ralate to:
electric == it's spin handedness and orientation.
magnetic == the flow of space within the spinor.

Within a spinor there is a closed surface (I show it as a spher but it could be any closed surface) over which space fows continuously. The remarkable thing is that you can do this in 3D space without ever teating or tnagling the connections to the surounding (or interior) space which is stationary.

If you took the line on that surface which represented the average flow you would have a magnetic field line. As it circumscribes a closed surface it will always form a closed loop.

The electric field can be thought of as an axis that passes through the field loop. It is more complicated than that because the flow of space in and around this region is "complicated" compared to the continuously flowing surface that represents the magnetic component. The elcetric component has a direction and a frequency.

I have just begun to create additions of spinors -- however a collection of charge behaves as one giant spinor -- that what charge is. There is a magnetic filed component associated with it -- a closed surface over which space flows continuously.
This leads to some very interesting outcomes/questions when you look at non simple topologies like a torroid -- you cant stretch a single spinor into a toroid without introducing a single node. However you can fit multiple spinors into a toroid -- this fits *exactly* with the behavious of electrons and flux in a superconductor.

I had an inpiration this morning and whope to do some animations to show what a longitudinal wave would look like traveling around a toroid... this also appears to explain what may be happening in the central collector.

got to go now...

later

Mark.