established MISC
Laser/light energy is pulsed to sustain compounding action in resonant cavities
The laser or light energy is pulsed to maintain the compounding action within the resonant cavities.
Bench
Engineering notebook
1,304 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 MISC
Ionized gas build-up per cavity stage increases gas yield before ignition
Ionized gas build-up per cavity-stage causes greater gas-yield to occur prior to gas-ignition or utilization.
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established MISC
Ionized gases pass through stacked resonant cavities in series
Ionized gases enter other resonant cavities in stacked relationship (exit port to inlet port), undergoing the same gas ionization process at each stage, per Figures 20C and 20D.
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established MISC
Laser/light energy injected into high intensity voltage zones to ionize liberated gas atoms
Laser or light energy (45), shown in Figures 20C and 20D, is injected into the high intensity voltage zones to help cause liberated gas atoms (including ambient air gases released from the water) to r...
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established MISC confidence 0.80
Laser Injected Resonant Cavity enhances hydrogen gas yield before ignition
The Laser Injected Resonant Cavity's purpose is to enhance hydrogen gas-yield beyond the voltage parameters and compounding-action (resonant-action) prior to gas ignition, helping liberated gas atoms...
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established
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 WFC
Liberated gas atoms are momentarily entrapped to impart particle-impact force, called resonant-action
Liberated gas atoms are momentarily entrapped to impart a physical particle-impact force on the water molecule being split apart; this process, in which liberated atoms are moved/oscillated uniformly...
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established WFC
Water molecule disassociation occurs via voltage stimulation
The water molecule is disassociated by way of voltage stimulation, as described in Sections A through M of the document.
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established WFC
Resonant cavity (44) shape/size varies to meet gas need, including spherical and longitudinal forms
The resonant cavity (44) can take on different shapes and sizes to meet a predetermined gas need, with spherical and longitudinal resonant cavities given as examples.
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established WFC
Resonant cavity (44) is made of Stainless Steel T304
The resonant cavity, identified as element 44, is formed using Stainless Steel T304 material.
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established WFC
Resonant cavity forms oscillating voltage zone around opposite polarity zone with water gap between
An oscillating voltage zone is formed around another voltage zone of opposite polarity, creating a water gap between them; the resulting voltage zones take on a cavity-design shape due to the skin eff...
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established
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
Resonant cavities stacked exit-to-inlet to accelerate compounding-action per stage
As shown in Figure 20D, resonant cavities are stacked exit port to inlet port to accelerate compounding-action per stage.
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established
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
Voltage pulse frequency (g) adjusted 1 Hz to 1 MHz+ to reduce amp flow
Voltage pulse frequency (g) is adjusted from 1 Hz to 1 MHz or more to further reduce amp flow while maintaining compounding-action.
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established
Voltage amplitude (d) must always exceed voltage amplitude (f)
Caution: voltage amplitude (d) should never be less than voltage amplitude (f), in order to maintain compounding action within the resonant cavity.
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established
Voltage amplitude (f) sustains compounding-action and scales with cavity size
Voltage amplitude (f) is varied to sustain compounding-action within the resonant cavity (44) and is adjusted according to cavity size; an increase in voltage amplitude (f) is required as cavity-size...
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established
Voltage pulse frequency (e) varied from 1 Hz to 1 MHz+ to increase gas yield
Voltage pulse frequency (e) is varied from 1 Hz to 1 MHz and beyond, further increasing gas-yield.
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established
Voltage amplitude (d) stepped up to range under 1V to 5,000V+ applied to cavity
Voltage amplitude (d) is varied to increase gas-yield; after step-up, the applied voltage range to the resonant cavity (44) is from less than one volt to 5,000 volts or more.
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established
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
Gated pulse on/off time adjustable 1% to 100% duty time
Gated pulse (H) relative to gated pulse (J) is proportionally changed to concentrate or expand applied voltages to the resonant cavity (44); the gated pulse train's on-time (53) versus off-time (54) i...
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established
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 EPG
Resultant magnetic field transverses pickup-coils to produce electrical energy
In either Quiescent or Active-State, the resultant magnetic field transverses pickup-coils to produce electrical energy.
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established EPG
Active-State: pulsed laser energy passes through gas-lattice producing magnetic pulse-wave
In Active-State, the laser energy is pulsed and passes through the Gas-Lattice to produce a magnetic pulse-wave, as illustrated in Figure 29 as to Figure 26A and 26B.
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established EPG
Quiescent-State: laser energy superimposed and stored in close-loop tubular EPG to maintain magnetic field
In Quiescent-State, the laser energy is superimposed onto the Gas-Lattice and 'stored' inside the close-loop tubular EPG system to maintain a given or predetermined magnetic field strength during EPG...