Selfrunning cold electricity circuit from Dr.Stiffler

[AhuraMazda]

I will build up a 74HC14 oscillator which can go up to 20 Mhz with
square waves.

Stefan,
The oscillator you are trying to build, will have will not have a 50-50 duty cycle so you will need to put a flip flop after  it and
divide it by 2.

[Thaelin]

@ Plengo
   I was looking at your last pic and see the ferrite antenna but no coil wrapped around it. In the circuit, it has a 9 turn coil on the outside of the antenna. This being an open ended drive on the coil with square waves. So this would make your circuit different than the one posted which makes it uncomparable to the original. Just what I am seeing.

thaelin

[samedsoft]

@HartiBerlin

   Please check this site http://www.sci.fi/~llatva/tekniikka/funcgen/   it is a Low cost 20MHz function generator [using MAX038]

   We need to find out rising and falling time of the square wave generator of Herr Dr. Stiffler.

    Also do you think VCXO http://www.bliley.com/index_065.htm#VCXO can be utilized as signal generator?

   
@Herr Dr. Stiffler

    1. Can you please try your experiment without using any core? I mean just pull BaFe core out and see the affect?

    2. If BaFe is critically important on High Voltage Generation, then Could you please investigate dual or triple BaFe cores?

    3.  When play with duty cycle, at which percentage or ratio do you catch maximum Voltage Output?

[k4zep]

Hi All,

I slept on all I did yesterday and did some serious thinking.  What bothers me the most about the experiments with this device is I am trying to prove to my own satisfaction that there is POWER gain in the circuit and not just voltage gain which is obvious.  The reason I say this is as I linearly increase the input drive voltage, I get a linear output change to the 2-1N914's from the Main coil.  While I get a very defined resonant peak from the input circuit, and coupling to the output, I'm not getting the multiplicative power boost from the core.  Possibly my use of an unknown core material is the fault here.

The basic problem I must address is how to determine the base resonant frequency of the ferrite core where it pumps or multiplies the power presented from the series resonant input circuit.  How to determine this frequency must be determine as no core is created equal give or take.

Dr. Stiffler, can you give us any help on how to determine the frequency of any particular core (assuming you have a pumpable core) to get the power gain and then the obvious resulting resonance frequency of the input circuit in this strange little device?  I feel the need to back up and do some basic research into this so I understand what is going on.

Respectfully
Ben K4ZEP

[DrStiffler]

I am going to try to answer a number of questions at once and may or may not direct to a single individual.

@k4zep

Because all coils, signal generators, mounting boards, feed line length and the required L1 being off impedance or having to much inner capacity, there is no magical frequency. The frequency depends on the setup and unless they are replicated exact (as would be in a production line) they will all be different. On your replication I think you added the long feed (single line) in response to all the talk about the generator being coupled back, although this is self defeating. This long line forms a radiator (antenna) and not only does excitation escape, but it can couple back into the circuit out of phase and reduce your output, this is why in later circuits I use an onboard osc. and impedance matching driver.

I am quite surprised at what you stated about a battery maybe charging. I gave direct charging up a long time ago as it so upsets the circuit that it was not a viable direction.

The input impedance is Very High! this is why any measurement is difficult at best. Not using a ground return on the generator causes real pain in getting accurate readings of any series resistance in the single input lead. All test equipment must be floating (portable, battery operated, no mains) otherwise be prepared to go in circles.

Video #9 will show the best evidence on how to see potential results, although don't sit back and expect to jump in at the end. It takes feel and a personal understanding of the circuits to move on.

@All

I do not want to offend anyone, but I am not here to perform your experiments. If you want to go off with other coils and not use my circuits, you of course are free to do so. But it is not my research direction to do experiments that are not in my plans and end goal.

I hope you all do not forget about the first videos where the circuit is driving an incandescent light. This circuit is worth looking at as well as LEDS. The incandescent circuit will produce Heat in a load, where the LEDS cool. If you wish to stay with light, stay tuned, yet it takes few parts to also look at the other circuit once you have a working LED system.

Two hypothesis at this time exist on how the LED system is working, one will stay withing the Laws of Thermodynamics and the other (mine) will not, yet when looked at in total does end up not being a violation if looked at from the back forward, more on that later on my web site.

The circuit when properly designed emits a very interesting radiation field, this can be explored by probing the surroundings with a sense coil on an oscope. For those into the EE mathematics you will see at once that this field is not standard in its fall off from the radiator. This work is best left to those wanting to put some addition work into it.