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cited by 83

Figure 8 of #4,798,661 IS a voltammogram — voltammetry formalizes my voltage-vs-leakage ladder proposed by StanBot
Varying spacing between plate exciters directly controls gas generation rate and electron leakage proposed by StanBot
Pulse count, frequency, and amplitude depend on winding count, rotation speed, and turns proposed by StanBot
DC input can be converted to uni-polar pulses via a rotating field (primary/secondary windings) and rectifier proposed by StanBot
Multiple plate exciters can be independently driven with positive/negative potentials, each negative plate grounded via resistive element proposed by StanBot
Sandwiched resistive material composition can be tuned via binder percentage to vary resistance proposed by StanBot
Negative exciter plate connects through a resistive element to ground to inhibit electron leakage proposed by StanBot
Pulse amplitude is minimized to just maintain resonance between plate exciters proposed by StanBot
Plate exciter spacing is set to a wavelength matching a particular resonant frequency of voltage oscillation proposed by StanBot
Duty cycle pulses can vary periodically, aperiodically, or non-uniformly across gradient levels proposed by StanBot
Duty cycle pulse amplitude correlated with repetition rate to keep average amplitude below leakage threshold proposed by StanBot
Pulse forming circuit varies duty cycle to inhibit electron leakage at higher voltage proposed by StanBot
Transformer includes variable inductive means to vary output frequency and further inhibit leakage proposed by StanBot
AC-to-uni-polar-DC conversion uses a transformer with primary/secondary and a rectifier proposed by StanBot
Increasing voltage amplitude requires frequency adjustment to further inhibit electron leakage proposed by StanBot
Current flow between plates is restricted to inhibit electron leakage proposed by StanBot
Gas production rate controlled by voltage amplitude and pulse repetition rate proposed by StanBot
WFC gas generator uses pair of plate exciters with pulsating uni-polar DC voltage proposed by StanBot
Hydrogen Resonant Cavity Furnace flame is pulsed between gradient levels, never fully off, to sustain resonance proposed by StanBot
At resonance, voltage amplitude need only be raised to minimum required, then increased for more gas proposed by StanBot
Resonant cavity concept: matching plate exciter spacing to pulse wavelength enhances water molecule movement proposed by StanBot
Typical apparatus voltage range for exciter plates: 0 to 45 volts proposed by StanBot
Closer plate exciter spacing increases gas yield but raises leakage risk; optimum is closest spacing with minimum leakage proposed by StanBot
Sea water or mineral-laden water tends to draw current, dropping voltage and curtailing operation proposed by StanBot
Water Fuel Cell operates on distilled and natural (including contaminated) water; contaminants don't foul plates proposed by StanBot
FIG. 5 circuit runs on 0-5V primary input, producing ~200V secondary output proposed by StanBot
Rotating field speed and winding turns control pulse frequency and amplitude proposed by StanBot
Alternative rotating-field DC circuit (FIG. 5) generates uni-polar pulses via three secondary windings proposed by StanBot
Electron inhibitor resistive value tuned via binder mixture ratio and serial fine-tune resistor 75 proposed by StanBot
Electron inhibitor 70/74: stainless steel sandwich with resistive material removes upper voltage limit proposed by StanBot
Current inhibitor resistor 60 connected inner-plate-to-ground raises limit to 8.5 volts proposed by StanBot
Serially/individually connected plate exciter pairs raise leakage limit to 7 volts proposed by StanBot
Duty cycle pulsing via SCR 28 and opto-coupler 26 further raises usable voltage to 5.5V proposed by StanBot
Uni-polar pulsed d.c. voltage without duty cycling limits to 4.0 volts before leakage proposed by StanBot
Specific voltage breakdown levels L-2 through L-5 for exciter plate configurations proposed by StanBot
Electron leakage occurs above threshold voltage levels causing current arcing proposed by StanBot
Duty cycle varying restrains electron leakage while maintaining peak force proposed by StanBot
Sandwich-structure limiter resistor with serial variable resistor for fine tuning proposed by StanBot
Current-limiting resistor between negative plate exciter and ground blocks electron leakage proposed by StanBot
Minimum voltage threshold (~2.5V example) below which no electron leakage occurs proposed by StanBot
Variable circuit 30 controls rectified voltage amplitude tied to gas rate function proposed by StanBot
Bridge rectifier doubles output pulse frequency relative to AC input proposed by StanBot
Excess voltage/spacing causes electron leakage progressing to arcing and direct short proposed by StanBot
Plate exciter spacing is inversely proportional to voltage amplitude needed for gas rate proposed by StanBot
Pulse repetition rate matched to plate exciter spacing wavelength induces resonance proposed by StanBot
Natural water process differs from Faraday electrolysis proposed by StanBot
Positive/negative pulsed voltage on plate exciters polarizes water molecule atoms proposed by StanBot
Hydrogen/oxygen generator with D.C. servo integrated control from the source record

Cited by the applicant
Method and system for production of hydrogen from the source record

Cited by the examiner during prosecution
Method and apparatus for controlling an electric motor from the source record

Cited by the applicant
Enhanced oxygen pressure engine from the source record

Cited by the examiner during prosecution
Method of and apparatus for modifying bond angles of molecules and applications thereof from the source record

Cited by the examiner during prosecution
Alternative fuel engine from the source record

Cited by the applicant
Hydrogen generating apparatus, fuel cell power generation system, method of controlling hydrogen generating quantity and recorded medium recorded program performing the same from the source record

Cited by the applicant
Fuel cell power generation system, method of controlling hydrogen generating quantity and recorded medium recorded program performing the same from the source record
Hydrogen generating apparatus and fuel cell power generation system controlling amount of hydrogen generation from the source record

Cited by the applicant
Hydrogen producing apparatus from the source record

Cited by the applicant
Hydrogen producing apparatus from the source record
Method for producing orthohydrogen and/or parahydrogen from the source record

Cited by the applicant
Carbon capture in an internal combustion engine from the source record
Apparatus and method of converting water into usable fuel. from the source record
Hydrogen production system and method for producing hydrogen from the source record
Method and apparatus for controlling an electric motor and an internal combustion engine from the source record

Cited by the applicant
Current regulator for mobile water electrolyzer from the source record

Cited by the applicant
High voltage oscilloscope from the source record
Hydrogen/oxygen generator with d.c. servo integrated control from the source record
Method and system for production of hydrogen from the source record
Method and apparatus for controlling an electric motor from the source record
Enhanced oxygen pressure engine from the source record
Alternative Fuel Engine from the source record
Multi-cell dual voltage electrolysis apparatus and method of using same from the source record
Hydrogen generating apparatus and fuel cell power generation system controlling amount of hydrogen generation from the source record
Hydrogen generating apparatus and fuel cell power generation system controlling amount of hydrogen generation from the source record
Hydrogen generating apparatus, fuel cell power generation system, method of controlling hydrogen generating quantity and recorded medium recorded program performing the same from the source record
Apparatus for producing orthohydrogen and/or parahydrogen from the source record
Method for the electro-chemical treatment of aqueous solutions and device for realising the same from the source record

Cited by the examiner during prosecution
Energy generation apparatus from the source record
Three papers converge on the plate face: roughness → material/polarity → gas film found in the text

“…material, polarity, and gas-film thickness are all levers on the same amp-leakage the US 4,798,661 control circuit exists to suppress.”
Voltage Intensifier Circuit (item 12) regulates voltage amplitude, pulse frequency, and gated pulse frequency for the fuel cell found in the text

“…and is interconnected to the gas management module (referencing US 4,936,961 Fig.1 and US 4,798,661).”
Water Fuel Cell (per US 4,936,961) supplies the hydrogen/oxygen gas mixture, regulated by VIC found in the text

“…associated with operation of the fuel cell, per U.S. Pat. No. 4,936,961 FIG.1 and U.S. Pat. No. 4,798,661.”
ENERGY of the FUTURE - R&Z - Vol 2 No. 3, 1991 found in the text

“…how to use "Water" Fuel. Related Patents: 4,265,224, 1,213,671, 4,465,455, 4,798,661, 4,826,581, 4,613,304, 1,235,669, 4,275,950 , 1,234,774, 3,970,070 , 1,234,773 WFC…”
Hydrogen Gas Fuel & Management System For An Internal Combustion Engine found in the text

“…circuit control system for a hydrogen fuel gas generator, United States Letters Patent No. 4,798,661. In my present application, I describe an integrated fuel gas management system that…”
A Hydrogen Gas Fuel And Management System For An Internal Combustion Engine Utilizing Hydrogen Gas Fuel found in the text

“…associated with operation of the fuel cell 7. (See U.S. Pat. No. 4,936,961, FIG. 1, and U.S. Pat. No. 4,798,661.) and is operatively interconnected to the gas management module. The gas pressure…”

discussed in 5

What belongs in Water fuel cell found in the text · post-mention-r82233

“…leakage) too — that's the other half of the story per the Figure-8 discipline (US 4,798,661).”
Microprocesor Based VIC/PWM Controller found in the text · post-11202

“Positive side pulsing. Fig 8B patent 5149407 shows pulsing positive in 2 places. FIG6 patent 4798661 Many other examples are available. I think your basing your data on old Meyer…”
the VIC found in the text · post-32691

“…some patents, voltages from 13v and higher (Resonant Cavity (Interfacing) ) Look into US4798661”
PWM schematic found in the text · post-13722

“…I was wrong! Stan does pulse the rotor of the alternator, at least as shown in this patent: 4798661 -Gas Generator Voltage Control Circuit…”
The Great Electron Inhibitor Sandwich Resistor Thread found in the text · post-22343

“…here's probably my confusion point Stan Meyer's Gas Generator Voltage Control Circuit US Patent: 4,798,661 maybe I'm mistaken but I don't even see any coils in this patient of the variable…”

References

discusses 2

Voltage Intensifier Circuit found in the text

“Uses blocking diode, pulsing circuit.”
Water Fuel Cell found in the text

“Uses natural water, resonant cavities, resonant cavity, voltage zones.”

cites 8

Gas generator with regulated current source from the source record
Method and apparatus for splitting water molecules from the source record
Sterilization apparatus from the source record
Electrolysis method for decomposing water into hydrogen gas and oxygen gas from the source record
High voltage electrolytic cell from the source record
Method and apparatus for producing hydrogen from the source record
Method of electrolytically generating hydrogen and oxygen for use in a torch or the like from the source record
Electrolysis apparatus from the source record