Selfrunning Free Energy devices up to 5 KW from Tariel Kapanadze

[cheappower2012]

The most interesting question here is, why does the device shut off at all when the inverter is being disconnected? The output is 50 Hz 5000 Watts. Why does Kapanadze not back-loop that output directly to the input (the white cable plugged in to the inverter), but instead he creates a back-loop from the output (lamps) to a small transformer then through a rectifier (both in a black box) and that DC then back to the battery (connected to the input of the inverter)?

This is done to show that its overunity as part of the show,sucker people in,other devices are internally looped.I would disagree that the 50hz is used as a reference,its internally generated as the 220 v ac output.The reason for believing this is,if the 220 v came from the inverter,as soon as the inverter was disconnected the  lights would go out,they don't,they stay on for a few seconds,you need an oscillate to generate 220vac 50 hz.It is also possible
that he uses a parallel resonant using a filter choke and a big value capacitor as a 50hz oscillator of sorts,think simple with Tariel.Hes very low tech but very clever in use of things.Keep in mind all LC resonant
circuits ring,creating a decaying oscillation due to losses .You simply need to supply pulses at the right time to create a continuous   oscillation.It may not have an oscillator in the conventional sense,an overunity device can be thought as an amplifier ,small input,large output.
An LC osc is a resonant circuit connected to an amplifier so its possible
that he uses the device its self to generate the 50 Hz.

[Zeitmaschine]

Perhaps we should see the device as a grid-tie inverter, Kapanadze's blue inverter represents the grid, the device represents the grid-tie inverter that converts the energy coming from the environment (instead of a solar panel or a battery) and ties it to the grid.

Each sinusoidal phase of the grid (blue inverter) gives the device a small push, then the device pushes back (slightly phase-shifted) but with a higher current than the initial push was. Hence disconnecting the inverter (representing the grid) stops pushing the device, so, as the device can't push itself, it stops working after a second. It works like a punchbag. If you push a punchbag it pushes back and can hit you hard and it keeps swinging for a while after the pushing has stopped.

OK, If you feel you have missed something, tell us if you find it once you've taken an even closer look at it. It is very dark under that bench, so you may need a torch.

It is also very dark on top of the bench. Nevertheless the torch does not reveal a hidden wire but two missing ones.

Since those parts on the heat sinks are most likely transistors, they should be connected with three wires to work as transistors correctly. But I can see only two white wires leading to each heat sink.

Then looking closely at the green box heat sinks suddenly there are three white wires visible on each, two under the heat sink and one at the top. Meaning, one wire on each green box heat sink has to be a fake. Hence:

Wrong assumption: Three wires on the green box = transistor = accidentally invisible third wire on the work bench.
Correct assumption: Two wires on the work bench = resistor = fake wires on the green box.

Therefore, why thought Kapanadze later on it would be better to show three wires to the public instead of two? In order to hide the fact that the purpose of those transistors is to work as resistors only? Would it have been too revealing to simply use ordinary resistors in the first place?

No headaches anymore about the purpose of a push-pull circuit and whether those parts on the heat sinks are transistors or thyristors. The closer we look the simpler it gets. The big blue-orange coil is out already and so is the spark gap and now the push-pull stage is gone also.

Diode bridge, (hot) resistor, capacitor, induction coil = frequency doubler. Where is the induction coil? It has to be in the can (among other things) and it corresponds with the second transformer of the Stepanov carpentry setup.

That whole thing is a resonant LC circuit which is capable of pumping energy taken from the environment into itself. The visible transformer on the work bench is the L whereas the parallel C is hidden in the tin can, plus the hidden second transformer (the doubler induction coil) running somehow at 50 Hz and 100 Hz simultaneously. I bet on it.

One should ask Kapanadze what he knows about a frequency doubler.

And looking at the »whoosh« man's gesticulation below, it is also my gesticulation when my frequency doubler is running hot.

[Hoppy]

No headaches anymore about the purpose of a push-pull circuit and whether those parts on the heat sinks are transistors or thyristors. The closer we look the simpler it gets. The big blue-orange coil is out already and so is the spark gap and now the push-pull stage is gone also.

Diode bridge, (hot) resistor, capacitor, induction coil = frequency doubler. Where is the induction coil? It has to be in the can (among other things) and it corresponds with the second transformer of the Stepanov carpentry setup.

That whole thing is a resonant LC circuit which is capable of pumping energy taken from the environment into itself. The visible transformer on the work bench is the L whereas the parallel C is hidden in the tin can, plus the hidden second transformer (the doubler induction coil) running somehow at 50 Hz and 100 Hz simultaneously. I bet on it.

One should ask Kapanadze what he knows about a frequency doubler.

And looking at the »whoosh« man's gesticulation below, it is also my gesticulation when my frequency doubler is running hot.

Well done, you used your torch well.  I like your reasoning and this ties in with its so simple.......... I had always thought that the weird buzzing noise in the bedroom video was transformer. We know that a lot of eye candy is involved. However, we are still left with the problem in not having any real idea how the genuine components were interwired, their spec and whether there was or was not a hidden power supply to maintain the LC resonant circuit resonating.

One thing to bear in mind; the transistors used on the green box heatsinks were TO3 type, so its possible that their collectors (the transistor body metal) hidden wired to transistor fixing screws on the the heatsinks from inside the green box.

[AlienGrey]

Well done, you used your torch well.  I like your reasoning and this ties in with its so simple.......... I had always thought that the weird buzzing noise in the bedroom video was transformer. We know that a lot of eye candy is involved. However, we are still left with the problem in not having any real idea how the genuine components were interwired, their spec and whether there was or was not a hidden power supply to maintain the LC resonant circuit resonating.

One thing to bear in mind; the transistors used on the green box heatsinks were TO3 type, so its possible that their collectors (the transistor body metal) hidden wired to transistor fixing screws on the the heatsinks from inside the green box.

Hoppy  fancy that then, did you say you worked on telecommunications ?  years ago they didn't use IR opto cable they used COAX the Dally device uses COAX well the music frequency is 440 hz some thing like that well it's  not  well if that was a string on a jigtar it wouldn't be all that long to make it resonate would it ! so now un tune it so you get a standing wave, now magnify it what would you end up with, a verrrry loud noise right, well think again ! 

[Hoppy]

Hoppy  fancy that then, did you say you worked on telecommunications ?  years ago they didn't use IR opto cable they used COAX the Dally device uses COAX well the music frequency is 440 hz some thing like that well it's  not  well if that was a string on a jigtar it wouldn't be all that long to make it resonate would it ! so now un tune it so you get a standing wave, now magnify it what would you end up with, a verrrry loud noise right, well think again !

Hi Alien,

What's a jigtar??