Kapanadze Cousin - DALLY FREE ENERGY

[verpies]

This is just another case of XXX username comes and go and teaches /asks something then he will lose patience in about 90 minutes since I messed with him and he's sensitive.

I assume we all know that the source of magnetism in a magnetic is an atom, we also know that when an atom placed in a magnetic field it tends to orient along or against  this magnetic field... That means when I place a ferrite yoke in a magnetic field I'm able to arrange all it's atoms(small magnets) in a given direction causing a net resultant field.. the next process is where resonance kicks in, because with resonance I'm able to apply a very small force for a big response, I then apply the ferromagnetic resonance frequency (NMR frequency) to those atoms there by turning them 180 degrees with less energy... These processes have created a super magnet with the ability to move it's poles just like magnetic spinning in a generator... If you can recall Weasley in the deflection yoke of Lithuania said they felt a huge magnetic field present, that's what caused it,

Guys,


Just because Ntambi is new here, does not mean that he is one of those fly-by-nights.


What he wrote above is anchored in well-known science.  The internal hyperfine magnetic fields of iron are extremely strong.  How strong might even surprise you. 
According to the attached PDF document, these internal fields reach 33 Tesla in pure iron.  In a ferrite they will be different, of course, but the principle is the same.


Also, if nuclear magnetic resonance is possible in iron at approximately 45.5MHz then it should be also possible in the ferrite, even if at a different frequency.
Notice, that in iron the Larmor frequency is unaffected up to 0.6 Tesla of externally applied field.  Ferrite would have a different threshold but the principle remains the same.

[ramset]

Word on the street...Mr. Cortex is taking a time out....was pressing too many Buttons [got tennis elbow] .Stefan recommended rest.

[AlienGrey]

Professor Verpies. if I may address you as that, and its good to see you back and thank you for that
useful information.

Re the Ferrite NMR I found this it might be of help or not to others in experimentation
https://www.researchgate.net/figure/NMR-spectra-of-nanocrystalline-zinc-ferrite-obtained-at_fig3_258004401

Ntambi also mentioned the word nano pulse; point being Ruslan, Akula device used a Tesla coil
That gave a beautiful sine wave, what got me a lot of trouble from one quarter was my insistence
If Dally used nano pulses in his device then ... that's my point. and Ntambi confirms it.

AG

[verpies]

Word on the street...Mr. Cortex is taking a time out....was pressing too many Buttons [got tennis elbow] .Stefan recommended rest.

Good grief! What is this board coming to !?
Cortex was one of the people with real skills, as far as I remember.

[verpies]

Re the Ferrite NMR I found this it might be of help or not to others in experimentation
https://www.researchgate.net/figure/NMR-spectra-of-nanocrystalline-zinc-ferrite-obtained-at_fig3_258004401

This data shows the same trend:  Decreasing the frequency as the externally applied magnetic flux density increases.  This is the opposite behavior relative to most other materials.

Ntambi also mentioned the word nano pulse; point being Ruslan, Akula device used a Tesla coil
...
If Dally used nano pulses in his device then ... that's my point. and Ntambi confirms it.

There are three types of stimulating signals that cause spin axis precession:
1) CW
2) Sweeped FM
3) Dirac pulse (low repetition frequency nanopulse, picopulse, etc...)


The nanopulse is only one of them.
As usual the problem with NMR is getting the phase of the individual precessions synchronized.  That is generally difficult because the precessional frequencies depend on the magnetic flux density of the field that the precessing atoms are subjected to, so if the field is not uniform, then these precessions get out of sync (in other words - randomized) and the net signal becomes zero.  That is the scourge of NMR !


The nature of ferromagnetic materials makes it easier to maintain field uniformity because the internal hyperfine field is so huge (33T for iron) that any externally applied field constitutes only a small fraction of the total field felt by the atoms, thus the Larmor frequency of a ferromagnetic is relatively insensitive to the externally applied field (up to 0.6T for iron).


Also, pure metals are very conductive and that makes it hard for high frequency magnetic fields to penetrate them, due to eddy currents and skin effect.  The solution to this is heating up the metal so high that its resistivity increases or using non-conductive ferromagnetic or antiferromagnetic materials (e.g. ferrites) ...or other ways to stimulate the precession of the atomic spin axes, e.g.: acoustic stimulation.