con't of the post above
There are two types of VIC transformers
Taken from the SMTB:
Now it is clear that if the voltage zones are between 0.06-0.01 inches you need to use VIC number 2, if your voltage zones are higher than this VIC number 1 will work for you.
Now the VIC transformer creates its high voltages by way of reactive capacitance, XC1 • XC2 • XC3,…, • XC42. These type of transformer do not make their high voltages like a typical step-up transformer does. All of the bobbin cavities have to match in inductance with the primary coil’s inductance for the desired frequency the user is aiming for. This way makes sure that all coils hit resonance at the same time. Since the primary has the strongest magnetic field it leads the way for all other magnetic fields to add to its magnetic field strength.
The blocking diode stops the collapsing magnetic field from sending the voltage back to the secondary coil. It also doubles the voltage in the capacitor to that of the supply voltage from the secondary. The chokes limit current magnetically and also act as voltage multipliers the same way the secondary coil do. They also double the frequencies to the capacitors so what every frequency you are planning for make sure to cut that in half with designing your transformers. The current is out of phase by about 90 degrees lag time behind the voltage and that further limits the current flow so there is no arcing between voltage zones. As a result there is almost no signal degradation to the voltage zones.
Now the GP and EEC are the most important parts of Stanley Meyer’s patent for they can stand alone and improve any fuels energy output. And if you understand all of this you can make the system any way you like for it does not have to be made the way Stanley Meyer made it. Just follow the rules of what is needed to be done to make the reaction work. In the most basic sense what was done here was to make a controlled change to the environment inside of the intake system to one that is suitable for water combustion.
Now I am re-looking at this to see if I can add more to it.
Best make a hard copy of these two pages as they really help in understanding some parts of Stanley Meyer's work.
DC Tesla Coil design
DC Tesla Coil design
Just remember we are not using a rotor but a pulsing train.
In SMTB page 10-12 figure 10-5 Stanley Meyer shows he is using both negetive and positive potentials thus dubling the voltage in the voltage zones of the water fuel injector and gas processor since it is not at zero volts but one far positive and the other far negetive. Gives even more understanding as to what the VIC transformer is doing differently than other types of transformer configurations. By having a neggetive charge pump as well as a positive one the voltage potential in the voltage zones are twice as much. So if you have 20k volts you get a 40k potential differance in the voltage zones.
h2opower.
The VIC Transformers
There are two types of VIC transformers
Taken from the SMTB:
Voltage Intensifier Circuit (60) of Figure (3-22) (Memo WFC 422 DA) as to Figure (1-1)
(Memo WFC 420) and Voltage Intensifier Circuit (620) of Figure (7-1) are specifically designed to
restrict amp flow during Programmable Pulsing Operations (49a xxx 49n) but in different
operational modes: (1) VIC voltage circuit (60) utilizes copper wire-wrap to form Resonant Charging
Chokes (56/62) of Figure (3-22) in conjunction with Switching Diode (55) to encourage and make
use of "Electron Bounce" phenomena (700) of Figure (7-9) to help promote Step Charging Effect
(628) of Figure (7-7) by preventing electrical discharge of Resonant Cavity (140 - 170) since
Blocking Diode functions as an "Open" switch during Pulse Off-time; whereas, (2) VIC Voltage
Enhancement Circuit (VIC - VB) (620) of Figure (7-1) incorporates the use of stainless steel wirewrap
coils (614/615) to accomplish the formation of unipolar gated pulse-wave (64a xxx T3 xxx
64n) without experiencing "signal distortion" or "signal degradation" (preventing transformer
ringing during signal propagation) as elevated voltage levels ( - xx Vc- xx Vd - xx Vn) while
allowing the reduction of Capacitor-Gap (Cp) (616) of Figure (7-11) width spacing (57 of Figure 3-
25 ~35 of Figure 6-2) (typically .060 - .010) respectively. as illustrated in Tubular Resonant Cavity
(170) as to Taper Resonant Cavity (620) of Figure (7-1).
(Memo WFC 420) and Voltage Intensifier Circuit (620) of Figure (7-1) are specifically designed to
restrict amp flow during Programmable Pulsing Operations (49a xxx 49n) but in different
operational modes: (1) VIC voltage circuit (60) utilizes copper wire-wrap to form Resonant Charging
Chokes (56/62) of Figure (3-22) in conjunction with Switching Diode (55) to encourage and make
use of "Electron Bounce" phenomena (700) of Figure (7-9) to help promote Step Charging Effect
(628) of Figure (7-7) by preventing electrical discharge of Resonant Cavity (140 - 170) since
Blocking Diode functions as an "Open" switch during Pulse Off-time; whereas, (2) VIC Voltage
Enhancement Circuit (VIC - VB) (620) of Figure (7-1) incorporates the use of stainless steel wirewrap
coils (614/615) to accomplish the formation of unipolar gated pulse-wave (64a xxx T3 xxx
64n) without experiencing "signal distortion" or "signal degradation" (preventing transformer
ringing during signal propagation) as elevated voltage levels ( - xx Vc- xx Vd - xx Vn) while
allowing the reduction of Capacitor-Gap (Cp) (616) of Figure (7-11) width spacing (57 of Figure 3-
25 ~35 of Figure 6-2) (typically .060 - .010) respectively. as illustrated in Tubular Resonant Cavity
(170) as to Taper Resonant Cavity (620) of Figure (7-1).
Now the VIC transformer creates its high voltages by way of reactive capacitance, XC1 • XC2 • XC3,…, • XC42. These type of transformer do not make their high voltages like a typical step-up transformer does. All of the bobbin cavities have to match in inductance with the primary coil’s inductance for the desired frequency the user is aiming for. This way makes sure that all coils hit resonance at the same time. Since the primary has the strongest magnetic field it leads the way for all other magnetic fields to add to its magnetic field strength.
The blocking diode stops the collapsing magnetic field from sending the voltage back to the secondary coil. It also doubles the voltage in the capacitor to that of the supply voltage from the secondary. The chokes limit current magnetically and also act as voltage multipliers the same way the secondary coil do. They also double the frequencies to the capacitors so what every frequency you are planning for make sure to cut that in half with designing your transformers. The current is out of phase by about 90 degrees lag time behind the voltage and that further limits the current flow so there is no arcing between voltage zones. As a result there is almost no signal degradation to the voltage zones.
Now the GP and EEC are the most important parts of Stanley Meyer’s patent for they can stand alone and improve any fuels energy output. And if you understand all of this you can make the system any way you like for it does not have to be made the way Stanley Meyer made it. Just follow the rules of what is needed to be done to make the reaction work. In the most basic sense what was done here was to make a controlled change to the environment inside of the intake system to one that is suitable for water combustion.
Now I am re-looking at this to see if I can add more to it.
Best make a hard copy of these two pages as they really help in understanding some parts of Stanley Meyer's work.
DC Tesla Coil design
DC Tesla Coil design
Just remember we are not using a rotor but a pulsing train.
In SMTB page 10-12 figure 10-5 Stanley Meyer shows he is using both negetive and positive potentials thus dubling the voltage in the voltage zones of the water fuel injector and gas processor since it is not at zero volts but one far positive and the other far negetive. Gives even more understanding as to what the VIC transformer is doing differently than other types of transformer configurations. By having a neggetive charge pump as well as a positive one the voltage potential in the voltage zones are twice as much. So if you have 20k volts you get a 40k potential differance in the voltage zones.
h2opower.
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