When i read that about a year ago, it seemed clear to me i have to build the cell first, measure the capacitance (dry and wet - at least), and then build my VIC impedance to match the capacitance of the cell. Because i can measure the resistance in a winding by the wire length, but how do you measure the capacitance of the cell until you actually assemble the cell?
I don't know if this is relevant to all of Ronnie's work and teaching here - but it just seems to me building the cell first gives us constants with which we can complete the formulas for the inductor circuits - we then have some constants in the formula - primary voltage/amperage/frequency variables - and cell capacitance. If the cell capacitance is unknown - how do we match the impedance?
You can always go from physical dimensions of the cell(s), to capacitance this way:
http://hyperphysics.phy-astr.gsu.edu/hbase/electric/capcyl.html#c1The tricky part is considering this "capacitor" is also a wave guide, but at what frequency is it trying to guide? The dielectric of which, determines the velocity factor. And we know the dielectric can change from 80 clear down to about 4. So with a fixed size "capacitor" that has a variable dielectric, what value do you want to shoot for? Then how many of these cells do you want to put together in series?
Now suppose you have all the above figured out and you're ready to mate a pair of inductors to it. Again, what resonant frequency do you want to shoot for? Maybe a harmonic or maybe the fundamental?
And lastly, how does this all fit in with Coulombs Law? Because if you recall Ronnie's statement, if you don't comprehend Coulombs Law, there's no point in going any further.
Hit a wall yet?
This is why a strategy is needed. We need a fundamental principal in effect that guides all the rest of our decisions in building a VIC & WFC. My current thinking is to look at the VIC as a low-pass filter that allows charge to flow through it and get to the WFC in the correct proportions. And as a filter, it stops most of the current flow, but not all of it. We need a little for the initial 1.23 volt per cell charge and polarization process. This filter also redirects any reflections coming back from the WFC, puts them in-phase and resends them back to the WFC to create the resonant-rise condition. This is how I look at the VIC. It may be completely wrong, but until I hear the correct & complete method of operation that I can actually understand, I'll stick with it.
My feeling is that the water molecules, the electrons and all that deep stuff must be manipulated just a certain way. You can't just go hitting it with any ol' signal and expect results. If you do, the water will simply reject the signal and send it right back to you, potentially burning up your coils. A properly designed and built system puts just what you need at just the right time. It's an analog computer built specifically to split water. Simple as that. And being an analog computer, it can respond instantaneously via potential and at the speed of light via kinetic energy. So gigahertz signals and terahertz charge potentials between the VIC & WFC are entirely possible. Keep in mind you are trying to control the electron clouds around billions of water molecules. How fast do you really think you need to be?
Yeah, pretty fast.
