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.
Bench
Engineering notebook
451 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
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 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 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 VIC
Amplitude adjusted after minimum current flow achieved to control gas production
Once resonant-action is established and pulsing circuits are adjusted for minimum amp flow, voltage amplitude controls are then adjusted to vary gas production and trigger gas ionization via particle...
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established VIC
Resonant action initiated by attenuating voltage pulses while increasing amplitude
To start compounding-action (resonant action), voltage pulses are attenuated while voltage amplitude is increased.
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established VIC
Voltage pulses are attenuated up to and beyond 5,000 volts to ionize liberated gas atoms
Voltage pulses, attenuated up to and beyond 5,000 volts, are used to cause liberated gas atoms to reach an ionization state.
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established VIC
A variable pulsing circuit is used to tune-in resonant action regardless of cavity shape/size
A variable pulsing circuit is set up that is capable of tuning-in resonant action regardless of the shape and dimensional size of the resonant cavity (44).
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established VIC
Pulse-trains 53 and 54 can differ in frequency/amplitude and serve distinct functions
Pulse-train (53) and pulse-train (54) can have different pulse voltage frequencies and voltage amplitude adjustments, each performing a different function: pulse-train (53) regulates gas production on...
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established VIC
Variable gate circuit (55) retrofits to extend gas production across multiple cavities
Variable gate circuit (55) of Figure 20D is retrofitted to the dual-pulsing circuit of Figure 20C to extend gas production beyond the limits of a single resonant cavity, minimizing power loading while...
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established VIC
Duty-cycle pulse rate varied from 1 to 100 duty-pulses per second to restrict amp flow
Once the gated pulse-train (51) is set to maximize gas production, the gated duty-cycle pulse (52) is varied from one duty-pulse per second (52a) to one hundred duty-pulses per second (52n) to help re...
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established VIC
Duty-pulse train adjustable from 1 to 100 duty-pulses via gate circuit
Waveforms (d)(e) and (f)(g) combine into a pulse-duty (52) that is varied from one duty-pulse to one hundred duty-pulses (forming pulse-train 51) via gate circuit (32), representing the tenth and elev...
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established VIC
Variable gate circuit alternately triggers two opto-couplers to form dual waveforms
Variable gate circuit (32) is a two-state switch linked to opto-coupler (36) and opto-coupler (39). When near ground/low state, opto-coupler (36) triggers to form pulse waveform (d)-(e); when gate cir...
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established VIC
Dual-pulsing circuit integrates with VIC to drive resonant cavity
A dual-pulsing circuit (components 33, 34, 38, 39, 40) is integrated with the Voltage Intensifier Circuit (Figure 9) as shown in Figure 20C, to enhance hydrogen gas production beyond simple voltage at...
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established VIC
Ohm's Law governs LED cluster-array parallel circuit current
Ohm's Law for the LED circuit in a parallel array gives It, the total forward current through the LED Cluster-Array, based on VCC, the volts applied, typically 5 volts.
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established VIC
Laser/light intensity is linear with forward current through LEDs
Laser or light intensity is linear with respect to the forward current through the LEDs, where Iled is the specified forward current, typically 20mA per diode, and Vled is the LED voltage drop, typica...
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established VIC
LED Cluster-Array emits narrow-band visible light for laser interaction
Light-emitting diodes arranged in a Cluster-Array provide and emit a narrow band of visible light energy, as illustrated in Figure 1-6 (Figure 20XX).
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established VIC
Laser energy is superimposed onto Gas Destabilization Process to aid Electron Extraction
Laser energy (v), shown in Figure 1-1, is injected into or superimposed onto the Gas Destabilization Process to help promote the Electron Extraction Process, since absorbed light (electromagnetic) ene...