In the tri-coil (6-1) Stan has it wound the best way possible to give the best coupling between the Primary and Secondary/Choke combination. Just think of the secondary and chokes as a combined coil, basically thats what it is just separated by a diode. In a transformer configuration to get the best coupling you wont to divide you secondary up into two sections, an upper and lower section. The lower section should be placed closest to the core and then wrap your primary coil over that lower secondary section. After that you want to wrap your upper secondary section over the primary coil, this will give you the highest coupling possible. This is why Stan made the coil the way he did. Also by bifilar wrapping the lower secondary section (chokes) it will give you a greater potential difference magnification due to the currents flowing in the same parallel direction.
This is pretty much the same thing I was explaining in my post on "My Thoughts on How Meyer Split Water". This also takes place with the water molecule since it acts as a ferromagnetic. As the molecule is exposed to an external magnetic field it will change the Spin-Spin and Proton-Proton of the molecule. The Electrons orbit the nucleus at different rates and spin directions. When its exposed to the polarized magnetic field, the spin-spin will flip and align (Polarize). When the spin-spins align, it will cause the molecule to go from "ground state" to a higher energy state (excitation state). This excitation state is when the ground state electrons will move up to the next orbital shell and cause the electrons to be ejected from their orbital shells up in to the conduction band. Stan even show this happening in his book "The Birth of New Technology" figure 5-3 labeled "Energy Pumping Action" page 125. If the magnetic field is applied for a long period of time you can strip off all the electrons, but if you only apply the field for a short time period the molecule will return to its ground state and release photon energy. This is why Stan says in one of his videos, pulse for XX amount of time and then gate and release hydrogen for 90 seconds with no power applied. during this 90 seconds is when the water molecule is recovering and going back to ground state and releasing the photon energy which is then putting more power into the system and splitting more hydrogen and oxygen.
That's not true, coils with copper wire can restrict current flow. It's not the wires DC resistance that restricts the current, it's the magnet fields that are generated with in the coil and the Inductive & Capacitance Reactance that restricts current flow. Not sure where you're getting your information about this. I've tested and demonstrated this current restricting effect. I made a coil for the 8XA circuit that had inductance around 3H for L1 and 2.5H for L2 and I got resonance with that setup. I was inputting around 10vdc through the choke and restricting current below 25mA and outputting voltage well over 1kv peak. The water was charged up well enough that I could place a light bulb next to the cell and it would light up. I guess you haven't figured out yet that the LC circuit works with both Series & Parallel Resonance. You have a Series Resonance between the Secondary, L1, and the Cell. You have Parallel Resonance between L1 & L2. Not sure if you know what the different effects are between Series & Parallel Resonance or not. I will give you a quick lease. Series Resonance will give you a minimum impedance at the resonance frequency and Parallel Resonance will give you maximum impedance at the resonant frequency. Minimum impedance mean no resistance (XL=XC) and maximum impedance means infinite resistance (Amp Restriction). Spintronic, do you have any background in electronics?
This is straight out of one of my electronics books from school. "The effects of a closed magnetic loop is maximum concentration of magnetic lines in the magnet with minimum lines outside the core. This type of electromagnet has maximum strength in the iron ring & little flux outside. As a result, the toroidal magnet is less sensitive to induction from external magnetic fields & has little magnetic effect outside the coil. Note that, even if the winding is over only a small part of the ring, practically all the flux is in the iron core because its permeability is so much greater than that of air. The small part of the field in the air is called leakage flux."
The purpose of spirally wrapping the choke coils in the Tri-Coil Configuration is to minimize current leakage and to maximize the coupling coefficient to where as the L1 magnetic flux lines will be cut by the L2 flux lines.
fig 12 controls the gate pulse frequency. The PLL is responsible for resonance of the LC circuit. The gate pulse frequency will be a fairly low frequency, not up to 10khz...Ive tested the frequency range with my circuit and anything over 200hz wont show up at all.
all u need is the divide by 10...based on the perimeters of the gated pulse generator, you will only need frequencies between 0hz-200hz...so no need for frequencies higher than that.
I can get ya figure 8, but figure 7 is gonna be a no go. The reason for this is because Multisim or any other simulation that I have seen doesn't have the 4046 PLL IC's. Here's figure 8.
Well I completed the system and have been testing it for the past couple days. I haven't been about to generator high voltages with the transformer. This could maybe be to the cores that Im using, maybe I need ferrite cores instead of powder iron. I'll have to see if i can get a hold of some of these cores!
wow i didnt like connection K yesterday but today is my friend lol. i found that if signal K matches the superimposed frequency it does wat ive been trying to do manually for two days on its own
All connection "K" does is if the pressure sensor senses too high of a pressure it will send a high signal to the transistor which will cause the the transistor to be active and then the output to the AND gate will be 0v and this will stop the signal from going to the PLL circuit. Its just a safty feature.
Thats cool i can see if the frequency on connection K is higher then it cuts some pulses off for instance in the sim it and the imposed signal is running at 120hz and the output is one for one but if K is raised to 240 hz it cuts the pulses in half and so on. I s that how you see the sensor working or a voltage controlled sensor or something else?
The signal to "K" isn't going to be a pulse signal, its a variable voltage signal from the GMS.
wow i didnt like connection K yesterday but today is my friend lol. i found that if signal K matches the superimposed frequency it does wat ive been trying to do manually for two days on its own
All connection "K" does is if the pressure sensor senses too high of a pressure it will send a high signal to the transistor which will cause the the transistor to be active and then the output to the AND gate will be 0v and this will stop the signal from going to the PLL circuit. Its just a safty feature.
@Ali ...The 4017's are basically the same as the 7490's, its just the 7490's are TTL chips that operate on 5v and the 4017's are CMOS which can operate with voltages higher than 5v like say 10v, 12v, 15v...etc. Both are positive edge triggers. This means that the rising edge of any pulse is how it get its signal and it doesn't do anything with the negative edge or falling edge. Hope this answered your question.
