And here comes a little theory of mine:

a) An asymmetrical (coaxial) capacitor connected to high voltage/frequency can add energy to a circuit because either of the influence of the earth's electric field which is shielded from the inner plate by the outer plate or because of a quantum field effect due to the difference in size of the two plates.

b) A coaxial cable works as an asymmetrical capacitor.

c) It's the coaxial cable that brings ambient energy into that circuit due to its asymmetry.

d) L2 and the capacitor is simply a resonant circuit with an arbitrary resonance frequency.

e) The resonance frequency of that LC tank circuit must somehow drive the pulsing frequency of the coaxial cable.

f) There is a feed back loop (phase-locked loop) somewhere hidden in that overall circuitry.

If the big filter capacitor fails (or has too less capacity, 68µF?) what would happen? There would be a back loop from L2 to L1 to Tr2 coil 4 and 3 to the 150V supply line. Not overmuch but maybe enough to create an measurable (self-running) effect - assumed my theory is correct and this device is not just complete fake.

When filter capacitors in electronic equipment are failing then very strange an unexpected things can happen.

Actually, the resonant L2 circuit would be the LC circuit responsible for the one second shut-off delay in TK's 2004 video.

And here comes a little theory of mine:

a) An asymmetrical (coaxial) capacitor connected to high voltage/frequency can add energy to a circuit because either of the influence of the earth's electric field which is shielded from the inner plate by the outer plate or because of a quantum field effect due to the difference in size of the two plates.

b) A coaxial cable works as an asymmetrical capacitor.

c) It's the coaxial cable that brings ambient energy into that circuit due to its asymmetry.

d) L2 and the capacitor is simply a resonant circuit with an arbitrary resonance frequency.

e) The resonance frequency of that LC tank circuit must somehow drive the pulsing frequency of the coaxial cable.

f) There is a feed back loop (phase-locked loop) somewhere hidden in that overall circuitry.

If the big filter capacitor fails (or has too less capacity, 68µF?) what would happen? There would be a back loop from L2 to L1 to Tr2 coil 4 and 3 to the 150V supply line. Not overmuch but maybe enough to create an measurable (self-running) effect - assumed my theory is correct and this device is not just complete fake.

When filter capacitors in electronic equipment are failing then very strange an unexpected things can happen.

Actually, the resonant L2 circuit would be the LC circuit responsible for the one second shut-off delay in TK's 2004 video.

hi Zeitmaschine,

I do suspect this attachment in your post is like the earlier version of Akula device.Getting resonance on this  baby is gonna be real tough or if your are real lucky it might self run for a while then loses it's resonance.
Probability of failure is definitely higher without the PLL I/C.

I have attached the Akula circuit with PLL I/C:4046 with it's mystery I/C:K555TB9.

By the way the K555TB9 base on russian datasheet which i had stumbled upon is actually 74LS112N.

I attempted validation of the attached circuit by testing out what each I/C is actually doing.
For example LM393N function is to convert Sine-wave to square wave(digital)with dual 1N5822 or 1N4148 at  it's input to limit input voltage so that it's output at pin 1 of LM393N would appear a nice square wave form(tested to 300khz any higher eg500khz would cause the square wave form to appear little funny). 

"The frequency sensor\current transformer 50,0.5 turns before IN5822" can be replaced with a toroid with around 20 turns(around 28AWG thick) and the thick cable just go through the toroid.It's simple this way.

I will not explain what all these discrete components does eg:74LS112N,74HC14 and IR2111 does since all this are clearly indicated in datasheet.

PLL I/C:4046 needs more research to be done to understand what it actually does.Merely by looking at pinout in datasheet doesn't help much.
In order to know the estimated running frequency the I/C:4046 is running on using 0.5nf caps(or around 560pf) at pin 6 &7.Do ground pin 5,pin 11 connected to 5kohms-4.7kohms to ground,pin 12 allow the frequency to drift but for testing just connect to 5kohms-4.7kohms to ground as well.
What i got was around 230khz at pin 4 of I/C:4046.Base on attachment.

"At this high frequency around 230khz it looks like a Air core version instead of ferrite"

I'm still puzzled over the core of this attached device ,would it have various material in it like Geo fusion core copper, iron,smashed yoke ferrite???

I do need  Russian friend help to assist me understand the word as shown in the attachment with a arrow pointing to something like HV coil maybe.





 

к электромагниту = electromagnet

"to electromagnet"

More interesting is what the "P" input is for and what is the MO in the main inductor and its core?
The voltage comparator, JK-FlipFlop, PLL, Schmitt Inverters and MOSFET driver are obvious.

hi dx30r and verpies,

Thanks for providing the translation.

Regarding the P via resistor to 74hc04 .This would likely be 5volt pull up.The only explaination i can think.
I just realized there is no output clearly indicated for a loop back to self run.
Unless the "electromaget coil" is going to input of Atx power supply to complete the loop.

Can anyone provide the link to video or photo which i think was attached couple of weeks back.
I am more curious if there is or isn't spark gap for this device which might make this device ozone friendly.

I think the electromagnet coil is the innermost coil that is tied to the aluminum sheeth coil...

Like in http://www.youtube.com/watch?v=UFcd_QCLK5w ?
http://freeenergynews.com/Directory/Magnets/Leedskalnin/Magnetic-Current_Edward-Leedskalnin_51pp.pdf

I'm not sure akula means the same thing

What happens without the ground wire?

Apropos ideas: I'm still wondering, if a coaxial cable (asymmetrical capacitor) can provide additional energy, then what would be the best method to link that energy flow to a (50Hz) output circuit?

Second is bifilar coil closed looped by itself

Can we consider a coaxial cable as bifilar?

And yes it is bifilar coil but in not standard way!

when impulses are generated to inductor it magnetises a bifilar coil (it creates a magnetic field in bifilar coil) so in total you have one source "generating pulses" but in fact you have resonant magnetic generator with two fields

In order to understand the arrangement: Has anyone tried yet a (50Hz) resonant LC circuit wherein the coil L is wound with a coaxial cable (coaxial capacitor), so the shielding is the resonant coil L and the inner conductor is connected to a pulse generator e.g. a high voltage transformer or a nano pulser and those pulses are synchronized (in resonance) with the frequency of that LC circuit?

  Latest video from Igor Moroz:
  http://www.youtube.com/watch?v=fn-PcdXIrRA

  Notice that his version of the Mazilli/Royer circuit is different than either of the original circuits.
  I guess that Igor didn't get his induction cooker board fixed. 
  Nor do I seen an attempt at a feed back path, yet.

   If Geo can PM me and let me know what he did to "manage" to have his build self-run, I'd appreciate it.
                         NickZ

OK, finaly i got my new bunch of 47N60C3 MOSFETs, so i tried again my GeoFusion roundcore circuit.

But when limiting my PS current to 3A or so, it still keeps on blowing these MOSFETs in my Mazilla circuit.
So its not the (over)load that is killing them.

Finally i could capture on the scope what is doing that, see picture.

The both traces are the gate signals which should be protected by the 12V zeners, but as you can see with a cap of 5.6nF installed it starts to oscillate causing this 44.2V pp 1.6MHz signal on the both gates, killing the MOSFETs after 2 seconds.

The zeners are not able to protect the gates at this frequency.

The IRFP260N MOSFETs in the exact same circuit do not oscillate, so it must be some MOSFET specific capacitance that is causing the 47N60C3 MOSFETs to be destroyed.


Any suggestions on how to protect the gates?

A 0.1uF ceramic cap across the zeners (= 0.9 Ohm reactance)?
Replace the 470 Ohm resistors with inductionfree/poor ones?
something else?

Thanks,  regards Itsu