Just saving everyone's time and frustration.
Andrija Puharich talks about resonance to be the most current with the less power applied, Meyer talks the opposite with almost same circuit (inductors and transformer) with exception of the diode.
Everyone who think by their own head will question all of this.
with serie resonance, thats what it is. Current and also voltage. out of phase......The voltage creates the "pressure" and then the current can boost in. That how you get lots of current going thru a wfc...
now the question is: how high can you go with voltage to charge up a bifilar coil? What are the upper borders?
Of course it depends on the amount of windings and wire resistance, but still...
Lets say, we take a ferriet core with 400 bif windings...
How high can you go with volts?
Well, as I stated in the other post, the voltage in the cell is directly proportional to the current passing thru it. No matter how many turns your bifilar has, if it does not have the capability to feed many amps to your cell, you wont have high voltages at your cell, unless the resistance of your cell is huge (with the cell beign small). My cell has 100 Ohms resistance, I need 10 amps peak to have 1kV in it. In my case, if I had 1000t bifilar with awg35 wire, I would never reach kV in my cell, I can achieve with kV with 200t, awg23, but is pure electrolysis. If 100V is applied to a 100Ohm load, you'll always have 1amp, you'll never get to restrict the current without lowering the voltage, this is ohms law. You cannot apply 100V to a 100ohms load and have only miliamps, and it does not have anything to do with the frequency, you can sweep you cell from DC to 1Ghz, the frequency response is flat.