established VIC
Movable wiper arm fine-tunes Resonant Action during pulsing
The variable inductor-coil (D) has a movable wiper arm that allows fine tuning of the 'Resonant Action' during pulsing operations of the Voltage Intensifier Circuit.
Bench
Engineering notebook
1,333 published findings from the ongoing work — what has been established, calculated and observed at the bench, each traceable to the session that produced it.
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established VIC
Variable inductor-coil (D) mirrors inductor (C) but ties to opposite polarity voltage zone (E2)
Variable inductor-coil (D), similar to inductor (C), is connected to the opposite polarity voltage zone (E2), which further inhibits electron movement or deflection within the Voltage Intensifier Circ...
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established WFC
Excitor-Array voltage can exceed 20,000 volts via circuit AA interaction
Voltage intensity or level across the Excitor-Array (ER) can exceed 20,000 volts due to circuit (AA) interaction, and this level is directly related to the pulse-train (H) variable amplitude input.
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established WFC
Voltage across Excitor-Array rises progressively from ground-state then resets
Voltage intensity across the Excitor-Array increases from zero 'ground-state' to a high positive voltage potential in a progressive function; once the voltage pulse is terminated or switched off, the...
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established WFC
Unipolar pulse-train produces step-charging voltage effect across Excitor-Array
During resonant interaction, the incoming unipolar pulse-train (H) shown in Figure (1-1) and Figure (1-5) produces a step-charging voltage effect across the Excitor-Array (ER), as illustrated in Figur...
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established VIC confidence 0.70
Inductor voltage VL and capacitor voltage VC given by Eq 6 and Eq 7
The voltage (VL) across the inductor (C) is given by equation (Eq 6), and the voltage (VC) across the capacitor is given by equation (Eq 7), describing the step-up relationship in the resonant circuit...
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established VIC
At resonance, voltage across inductor/capacitor theoretically approaches infinity
At frequency close to resonance, the voltage across individual components (inductor C, capacitor ER) is higher than the applied voltage H, and at resonant frequency the voltage VT across both inductor...
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established VIC confidence 0.70
Series LC resonant frequency and Ohm's Law given by equations
The resonant frequency (F) of a series LC circuit is given by Eq 4, and Ohm's Law for the series LC circuit is also provided in the text (exact equation not transcribed).
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established VIC
Impedance of LC circuit determined by L, C, and pulse frequency
The value of the Inductor (C), the value of the capacitor (ER), and the pulse-frequency of the applied voltage across the LC circuit together determine the impedance of the LC circuit (Eq 1, series im...
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established VIC
Resonant frequency is independent of voltage amplitude
The established resonant frequency of the LC circuit is independent of voltage amplitude, as illustrated in Figure 1-3 as to Figure 1-4.
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established VIC
Resonant frequency adjustable via inductance/capacitance
The resonant frequency can be raised or lowered by changing the inductance and/or capacitance values of the LC circuit.
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established VIC
LC circuit is tuned to resonance
The Inductance (C) and Capacitance (ER) properties of the LC circuit are tuned to resonance at a certain frequency.
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established VIC
Inductor (C) functions as Modulator Inductor to step up voltage
The Inductor (C) becomes a Modulator Inductor, stepping up an oscillation at a given charging frequency along with the effective capacitance of a pulse-forming network to charge the voltage zones (E1/...
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established WFC
Water acts as resistance limiting electron flow in pulsing circuit
Water becomes part of the Voltage Intensifier Circuit acting as 'resistance' between electrical ground and the pulse-frequency positive potential, helping to prevent electron flow within the pulsing c...
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established WFC
Natural water dielectric constant is 78.54 @ 25°C
The dielectric properties of natural water between the electrical plates (E1/E2) form the capacitor (ER); natural water has a dielectric constant of 78.54 at 25°C.
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established VIC
Choke and Excitor-Array form LC circuit
The Resonant Charging Choke (C) in series with the Excitor-Array (E1/E2) forms an inductor-capacitor (LC) circuit, since the Excitor-Array (ER) acts as a capacitor during pulsing operations (Fig 1-2,...
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established VIC
Isolated electrical ground prevents electron flow from input circuit ground
An isolated electrical ground (J) prevents electron flow from the input circuit ground, maintaining electrical isolation within the pulsing transformer/VIC assembly.
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established VIC
More secondary turns increases voltage amplitude
Voltage amplitude or voltage potential is increased when the secondary coil (A) is wrapped with more turns of wire.
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established VIC
Primary and secondary coils are electrically isolated in the VIC transformer
The primary coil is electrically isolated from the secondary coil (no electrical connection between them) to form the Voltage Intensifier Circuit (AA), as shown in Figure 1-1.
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established VIC
Pulsing transformer steps up voltage amplitude during pulsing operations
The pulsing transformer (A/G) steps up the voltage amplitude or voltage potential during pulsing operations within the Voltage Intensifier Circuit.
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established VIC
Electrical steel core forms a closed-loop magnetic induction pathway through the VIC coil-assembly
Electrical steel core material (53) forms a close-loop magnetic induction pathway centrally through and around the VIC coil-assembly (530), as schematically illustrated at (190) of Figure 3-23 (Memo W...
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established VIC
Resonant, primary, and secondary bobbin assemblies combine to form the VIC coil-assembly
Resonant bobbin assembly (503), primary bobbin assembly (504), and secondary bobbin assembly (506) structurally combine to form the Voltage Intensifier Circuit (VIC) coil-assembly (530), shown in Figu...
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established VIC
Secondary pickup coil cavity is layered atop the primary coil cavity
Secondary bobbin cavity (506) is placed on top of and in spatial relationship to primary coil cavity (504).
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established VIC
Secondary pickup coil uses .002 Ga. magnet wire, spiral wrapped and sequentially connected
Secondary pickup coil (52) in Figure 3-23 is composed of individual spiral wrapped coils (505a...505n), typically .002 Ga. magnet wire, electrically connected in sequential order to form bobbin cavity...
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established VIC
Primary coil uses .030 Ga. film coated magnet wire, wound longitudinally over the choke coils
Primary Coil (26), typically .030 Ga. film coated magnet wire, is longitudinally wrapped in space relationship on top of and layered bidirectionally (507a...507n) across the spiral-wrap choke coils (5...
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established VIC
Individual spiral-wrap choke coils are connected in sequence to form the resistive pickup coil
The individual spiral-wrap coils (501a...501n) are electrically connected in sequential order to form the resistive pickup coil (503).
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established VIC
Choke wire is axially bifilar wound around core bobbin into equal-length spiral coils
The .004 Ga. (or smaller) 430F/430FR wire is axially (spiralled) bifilar wound about core bobbin (502), forming individual spiral-wrap coils (501a...501n) of equal length running from inner to outer c...
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established VIC
Resonant choke coils use 430F/430FR stainless steel wire, hi-K film coated
Resonant Choke Coils (56/62) shown in Figure 3-23 (Memo WFC 422 DA) are composed of 430F or 430FR inductance stainless steel wire, film coated for high dielectric value, typically .004 gauge or smalle...
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established VIC confidence 0.80
Voltage Intensity of Opposite Potential triggers Hydrogen Fracturing Process
The 'Voltage Intensity of Opposite Potential' (600) generated by the VIC coil-assembly performs work to trigger the Hydrogen Fracturing Process (520), as referenced against (100) of Figure 4-8.
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established VIC
VIC coil-structure design parameters determine efficiency via minimized amp leakage
The design parameters of the VIC coil-structures (580) inherently determine 'Efficiency,' defined as minimizing amp leakage, which governs how the resulting Voltage Intensity of Opposite Potential (60...