The Gabriel Device, possible COP=8

[importfanatik]

I started doing some tests, but am too busy with completing my house to complete the testing, but here's some results in case someone wants to analyse what it means. Configuration: I have a Kilowatt meter measuring the power at the wall socket, connected to an autotransformer; the output is to the device. The idle power on the autotransformer is about 10 watts.

See attached file
                           
My secondary current measurement, I think is not accurate, so will use a low value resistor instead of the current coil probe for further tests. Plan to rectify the output. The results seem to indicate that at no load & low voltage, the secondary coil receives all the flux from the primary (even more?), but this changes as the voltage input is increased; or a secondary load is applied.

/Wayne

Thanks Wayne, good work documenting your results in a structured and scientific format.  I wish more people on this board would do that.
What type of load is connected to the secondary during your tests? Also, what are the 20w loads on the primary? are they toasters?

[wayne49s]

Thanks Wayne, good work documenting your results in a structured and scientific format.  I wish more people on this board would do that.
What type of load is connected to the secondary during your tests? Also, what are the 20w loads on the primary? are they toasters?

@import
They are halogen lights 20watt each @12V.

[Magluvin]

Has anyone tried using an AC capacitor in series with the primary?  ;]

I cant specify a value other than one that can handle the voltage.  Experiment.  ;]

Mags

[Mavendex]

I ordered a autotransformer Ty Wayne.

[Jack Noskills]

Here is an idea, assuming the secondary core acts as a delay. Flux in secondary winding goes through this core and primary winding sees voltage that is in different phase, sort of delayed. So instead of this back EMF causing voltage drop in primary it will cause voltage increase. If this back emf could be delayed 180 degrees then it would add to primary in its entirety. The Tesla transformer that used two iron cores is based on this principle. In Tesla patent it was mentioned that you can take power out of it at constant amperage. Not sure what this statement actually means, you add more load you will always get same amperage out without taking it from the source ?

Now if this is what is going on in this transformer (or the Tesla version), then what happens if you put capacitor in the primary in parallel with the primary coil. You would then charge up capacitor once and it would begin to oscillate as normal LC tank circuit. This oscillation goes in the secondary and when you put load there the back emf would get added there and stored back in the capacitor. Capacitor would never deplete and oscillation would continue forever or as long as you take load out from secondary ?

As the name implies, I am new to this stuff, but I think there is overunity already in the LC circuit itself. You charge it once with half sine wave to some voltage, then it oscillates for a period of time and output is many sine waves though decreasing depending on the resistance of the L coil. Higher the frequency, less wire needed in the L coil and less resistance thus LC circuit rings longer. By putting pickup coil in the LC circuit you can then take this oscillation in another circuit. With proper 'fencing' this another circuit would not interfere with the primary, e.g. use low coupling between coils e.g. bifilar pancake or iron shield between windings.