established VIC
Resonant Charging Choke (47) to ground completes the VIC
A Resonant Charging Choke (47) connected from the negative voltage zone (44) to electrical ground (48) completes the Voltage Intensifier Circuit 9XA per schematic 20YA.
Bench
Engineering notebook
1,315 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
Resonant Cavity surfaces 44/45 form the capacitance of the assembly
The voltage zone surface areas (44/45) of the Resonant Cavity Assembly (Figure 12) form the capacitance value of the assembly, with natural water inside the cavity providing the dielectric between the...
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established VIC
VIC electronic interfacing circuit components identified
The Voltage Intensifier Circuit 9XA electronic interfacing circuit consists of a Secondary Pickup Winding (42, resistive wire coil), Blocking Diode (14), Resonant Charging Choke (43, resistive wire co...
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established VIC
Dual Voltage Resonant Q: low amplitude pulse frequency (54) injected between pulse frequency (53) to maintain charge
In the Dual Voltage Resonant 'Q' scheme, a Low Amplitude Pulse Voltage Frequency (54) is injected between the Pulse Voltage Frequency (53) to keep an electrical charge on the water molecule during Res...
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established VIC
Resonant Cavity Structure shape varies with applied voltage amplitude vs pulse frequency, 0-5000V, 0-1MHz
By varying applied voltage amplitude in direct relationship to a variable pulse voltage frequency, the Resonant Cavity Structure can take different shapes to maximize voltage stimulation of the water...
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established VIC
Series-resonant LC circuit delivers voltage several times greater than input voltage
The ability of an inductor and a capacitor in a series-resonant circuit delivers a voltage several times greater than the input voltage.
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established VIC
Resonant action occurs when inductive (43/45) and capacitive (44/47) reactances are balanced
Resonant Action occurs when the Voltage Intensifier Circuit (9XA as to 20YA) sets up a circuit condition whereby the inductive reactance components (43/45) and capacitive reactance components (44/47),...
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established VIC
Wire-coil (47) resistive value prevents amp flow like a Resonant Charging Choke
The resistive value of the wire-coil (47) prevents amp flow while performing in like manner as a Resonant Charging Choke.
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established VIC
Second Resonant Charging Choke (47) placed between negative voltage zone (44) and ground (48)
Another Resonant Charging Choke, resistor component (47), is placed between the negative voltage zone (44) and circuit electrical ground (48) to help maintain the resistance value (voltage level) with...
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established WFC
Natural water with <20ppm contaminants maintains high dielectric constant; distilled water insulates
Distilled water is an insulator to the flow of amps; natural water has less than 20ppm of any type of contaminates and maintains a high dielectric constant.
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established VIC
Component arrangement of VIC 9XA/20YA retards or prevents amp flow
The component arrangement of the Voltage Intensifier Circuit (9XA as to 20YA) retards or prevents amp flow through the circuit.
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established VIC
Capacitance forms between conductor plates 44/45 due to high dielectric value of natural water
Capacitance is formed between conductor plates 44/45 (voltage zones) since the dielectric value (insulating medium) of natural water is relatively high, opposing changes in circuit voltage until store...
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established VIC
T304 stainless steel voltage zone (45) does not chemically react with liberated gases
Stainless Steel Material T304 forming voltage zone (45) does NOT chemically interact with liberated hydrogen, oxygen, and ambient air gases in natural water when exposed to a voltage potential during...
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established VIC
High voltage output forms positive voltage zone (45) across water-immersed surface
The high voltage output from the Resonant Charging Choke (43) forms a Positive Electrical Voltage Pulse Potential (voltage zone) across surface area (45) immersed in natural water, per the step-chargi...
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established VIC
Charging Choke resistive value restricts amp flow
The resistive value of the Charging Choke (43) acts as a resistor, further preventing amp flow in the circuit.
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established VIC
Resonant Charging Choke (43) sets oscillation frequency with pulse-forming network capacitance
The Resonant Charging Choke (43) is a Modulator Inductor which sets up an oscillation at a given charging frequency (voltage pulsing rate) with the effective capacitance of a pulse-forming network in...
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established VIC confidence 0.80
Resonant Charging Choke (43) is a resistive wire coil component
The Resonant Charging Choke is identified as component (43), a resistive wire coil, within the Electronic Interfacing Circuit of the Voltage Intensifier Circuit.
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established VIC
Blocking Diode (14) conducts in one direction only, preventing electron flow toward pickup coil
Blocking Diode (14) conducts electricity in one direction only (the direction of the schematic arrow), preventing electron flow or movement toward the Secondary Pickup Winding (42) during Positive Vol...
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established VIC
Electron flow always moves toward positive electrical potential
Since electrons are negatively electrically charged, electron (amp) flow always moves toward positive electrical potential when allowed to do so.
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established VIC
Secondary Pickup Winding (42) is a resistive wire coil acting as a resistor
The Secondary Pickup Winding (42) is a resistive wire-coil that allows a voltage potential to form across it via electromagnetic induction, while the resistive (Ohm) value of the coil wire acts as a r...
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established VIC
Circuit purpose: form opposite voltage zones while restricting amp flow for water splitting
The purpose of the VIC circuit operational parameters is to form opposite Electrical Voltage Zones while restricting amp flow during the Electrical Polarization Process, which splits the water molecul...
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established VIC
Resonant charging choke to ground completes the VIC circuit
The Resonant Charging Choke (43), connected to electrical ground, forms and completes the Voltage Intensifier Circuit 9XA as referenced in schematic 20YA.
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established VIC
VIC Resonant Cavity forms opposite voltage zones using water as dielectric
The Resonant Cavity Assembly (4) has an inner surface (45) forming a Positive Electrical Voltage Zone and an outer surface (44) forming a Negative Voltage Zone. Natural water inside the cavity provide...
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established WFC
Resonant cavity fuel cell can produce over 115 cc/min of gas at 1 amp leakage current
The resonant cavity fuel cell can produce more than 115-cc/min of gases at one amp leakage.
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established VIC
Toroidal and rotary VIC variants perform the same amp-restricting/voltage attenuation function
The voltage intensifier circuit of Figures 9, 9XA, 9XF, and 9XG are functionally the same as Figure 20C, the toroidal voltage intensifier circuit of Figure 20YG, and the rotary voltage intensifier cir...
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established WFC
WFC housing uses electrically insulating material (plastic or spun glass) to prevent discharge underwater
To prevent electrical discharge of gas particles when the resonant cavity (44) and gas attraction zones (57) are submerged in natural water, the fuel cell housing is composed of electrical insulating...
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established WFC
Multiple accelerator tubes per stage and gate switching (58) control gas production on demand
Adding more accelerator tubes (56a through 56n, Figure 20B) per resonant cavity stage increases gas yield further; varying the gate switch circuit (58) or sequentially switching accelerator tube array...
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established WFC
Sequential gate circuit (58) increases gas particle velocity per attraction stage
By repeating the gas attraction process (Figure 20A) many times, charged gas particles increase in velocity since sequential gate circuit (58) applies greater voltage potential per gas attraction stag...
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established WFC
Accelerator tube (56) placed between resonant cavity stages increases particle collision
To increase particle collision, accelerator tube (56) of Figure 20A is placed between resonant cavity stages (Figures 20 and 20D); expelled charged gases move through oppositely electrically charged p...
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established WFC
Geometrical gas rate plateaus when water flow into the resonant cavity becomes constant or reduced
The geometrical gas production rate peaks out or stops when water flow rate into the resonant cavity becomes constant or reduced during gas production.