Need Leedskalnin PMH coil winding diagram

[sm0ky2]

it would be interesting to examine the crystalline structure of a metal
before and after PMH manipulation.


Perhaps this would lead to a better understanding.

[sm0ky2]

Deparamagnetized a ball.


https://youtu.be/KAx9UD3pQbE


you can do this by establishing a PMH loop in one direction
allowing it to stay for some time
Then reverse the loop for a longer time
I am still unsure concerning the time constraints, may involve
field intensity as well as the "changing permeability constant"
(if that's what's really going on)


I misspoke near the end, after pulling the paperwork, the steel used
is actually 410, not the 200 series that I say in the video.
But I successfully deparamagnetized it, for the most part.
There is still some mild induction taking place, but nothing of what it once was.
I am fairly sure the stresses placed on the material while the field is looped
is causing changes to the crystalline structure.
Wish I had a way to prove or disprove that.... electron microscope?
Don't have one but I may know someone who has access to one.


What I am doing here, is said to not be possible, by the makers of the stainless.
You can do this yourself.


You don't have to use a high-current spark like I am using here, this can be done with
coils in the normal PMH manner.
The DC step-up converter I use here is just so I can have a portable source.
Also I like that I can send current directly through the conductor,
I probably won't go back to the Leedskalnin coil setup.
Unless I need a really strong loop.

[sm0ky2]

Ok so, after talking with my biologist with the microscope,
He says he can't do what I need.
And sent me to a materials physics lab that has an x-ray machine
that can be used on metals.


The process is very expensive and they told me my sample has to
be a specific size for their machine.
That would mean making a piece specifically designed to be tested.
And two tests at 3500 a pop is like 7 G's just for my own curiosity....
I'm gonna leave that to the magneticians than actually "need" to know.


At this point I have to just assume that the field-loop alters the crystalline
structure, because according to the current model, that is what gives the
metal its' magnetic properties. (in most cases)


does this mean that the structure itself can be governed by magnetic field
strength and orientation?


If so, could it be that the atomic feedback mechanism creates frequency
specific responses to the field, and forms shape similar to sonic structuring?


Hmm,  this is a lot to think about.


One magnetic theory proposes that since the magnetic moments of each
individual atomic/molecular dipole are out of phase with those nearby,
the frequencies cancel each other out, so there is no vibration.
Then expands into face-relation geometry of the crystals.


But if the geometry is a function of field components, one would assume
there must be at least one net (internal) oscillation.
Otherwise, we could sum the entire magnetic situation into a short equation
that resembles our 3 phase model of matter.
That's too "simple".... someone other than me would have figured that out by now.

[sm0ky2]

Given that experiments thus far show no fail-state with known solids,
we could be safe to assume that frozen liquids can also be made magnetic.


if I can magnetize ice, then by default, I can magnetize structured water.
So the real question is......


Can I structure water, using magnetism?


My next experiment along these lines will be to include a volume of water into a loop
and test for the presence of an exclusion-zone.

[sm0ky2]

Because we are above absolute 0 (and the new abs-0 by a new theory)
but below Tc
We must use the Brillouin function to analyze the magnetization.


The reduction of this equation tells me that there must be
A change in temperature in the PMH.


More specifically, it should 'cool down' when it locks
And 'heat up' when it unlocks.


Does anyone's know of experiments done along these lines?