Need Leedskalnin PMH coil winding diagram

[sm0ky2]

so the losses in stored energy are somewhat similar to the inductor
in that they are mainly comprised of the losses of inductance and impedance
used in modern electrical theory.


The advantage then becomes, the duration of storage.


To store the same energy in an LC circuit for long periods of time,
results in 'bleeding' and other emanations of energy, which limit
the long term storage of the electromagnetic energy.


The energy interactions in the atomically stored magnetic field, at this point in the research
are photonic in nature, as the discernible magnetic interactions with the environment are
so small as to be considered insignificant.
As it pertains to the photonic interactions, creates a polarization effect on incoming light
perpendicular to the magnetic field.


Under light of below extreme intensities, is it assumed that any inertial effects of polarization,
are sufficiently sustained by atomic interactions alone, and thus does not decrease the intensity
of the looped-field over time.
And if left undisturbed, remains infinitely.


The polarization effect can be observed with loops of high intensity, viewed from an angle
90-degrees to both the magnetic field and and incoming perpendicular light.


by arranging an array of multiple loops in the line of sight
Heisenberg's uncertainty principle can be demonstrated
as the polarization effect diminishes with each subsequent loop
placed in the line of sight.

[sm0ky2]

This has profound impacts on our view of the universe,
as it pertains to "age" or "lifespan" of the universe as a whole.
Energy can be stored for an infinite amount of time, in loops.


A ring of iron dust, penetrated by a meteor
for instance
May release an unknown quantity of electromagnetic energy.
and the task becomes difficult to know "how much" is stored
in it from almost any outside perspective.


There may be a way to discern, through degree of polarization,
and point of photonic saturation of the polarizing field
from a predetermined perspective,
and careful observation of polarizing events,
to detect astronomical PMH magnetic loops...
(my gift to the astronomers)

[sm0ky2]

This may have further application in the fields of dark matter / dark energy

[sm0ky2]

Ok so....
I've gathered some more information about this
magnetization issue.
Had a long conversation with a professor from UT
Who studies metamagnetism in natural Garnets,
Colbalt-Al alloys, and Lanthanide-AluminoSilicates


He assured me that the crystalline structure is NOT
altered by this process!
My assumptions in this area were completely off.


The way he describes the process, is that clumps of atoms
align their magnetic domains 'loosely' into groups.
this changes the magnetic properties of the material.


The crystalline structure is a physical property of the metal
and for aluminum, is Face-centered-cubic (austenitic)
whether in a metamagnetic state or a non-magnetic state.


He also stated that it is not likely for the stainless steel to
be undergoing austentic/martensitic transformation.
But that it is likely that metamagnetism is affecting the chromium
and nickel, while the iron and carbon in the alloy should remain unaffected.
But that by reordering the magnetic domains in the chromium, alters
the magnetic properties of the iron.


The steel is actually still austenitic, even though it is magnetic.




So here, is the first representation of ferromagnetism I have heard
that goes outside the crystalline structure of the magnet.


This is described by This guy
https://en.m.wikipedia.org/wiki/Edmund_Clifton_Stoner


Who, for some reason was excluded from university physics.
interesting stuff.
So apparently, while the crystalline structure can affect magnetic properties
It is not the inherent function of ordered spin domains.
But just one situation that can lead to it.


So, to be clear:
I was incorrect with my assumption that this effect somehow "alters"
the crystalline structure of the metal.
It only affects magnetic ordering.

[sm0ky2]

Now, I want to present something else, that is rather profound.


The pmh loop can be oriented in different physical dimensions
with respect to the magnetic field being "locked".


For instance, we can lock a loop oriented axially, to the field.
If you have a field with N/S oriented vertically
then a loop can be established horizontally around the field.
And the magnetization of this loop will be 90-degrees to the direction
of the loop.


In other words, the field doesn't have to be in the direction of the loop.
it will lock in a variety of orientations.


Here is a guy showing perpendicular lock
using an off-the-shelf electromagnet.
https://youtu.be/VlmXE5Evygo