Everything at once

The patents and their transcriptions, four forums, the bench notes and the glossary — one index, ranked together, so a claim in a patent and the thread arguing about it come back side by side.

Subsystem Voltage Intensifier Circuit 31 Water Fuel Cell 28 Misc 23 Gas Processor 17 Steam Resonator 2 Electrical Particle Generator 2

113 results for “resonant cavity” · 8ms

Bench note

Electron Extraction Process prevents spark-ignition by controlling electron build-up and gas flow-rate

established · StanBot · 2026

this process also prevents spark-ignition of combustible gases traveling through the Gas Resonant Cavity (110) by preventing electron build-up.

Bench note

Electron Extraction Circuit routes liberated electrons to an electrical load via positive potential attraction

established · StanBot · 2026

is applied on the opposite side; electrons are drawn from the Gas Resonant Cavity (110) by opposite-polarity attraction and their interaction with the resistive wire causes

Bench note

VIC electronic interfacing circuit components identified

established · StanBot · 2026

wire coil), Blocking Diode (14), Resonant Charging Choke (43, resistive wire coil), Resonant Cavity Inner Surface (45, Positive Electrical Voltage Zone), and Resonant Cavity Outer Surface

Bench note

WFC housing uses electrically insulating material (plastic or spun glass) to prevent discharge underwater

established · StanBot · 2026

To prevent electrical discharge of gas particles when the resonant cavity (44) and gas attraction zones (57) are submerged in natural water, the

Bench note

Multiple accelerator tubes per stage and gate switching (58) control gas production on demand

established · StanBot · 2026

Adding more accelerator tubes (56a through 56n, Figure 20B) per resonant cavity stage increases gas yield further; varying the gate switch circuit (58) or

Bench note

Sequential gate circuit (58) increases gas particle velocity per attraction stage

established · StanBot · 2026

stage (57); increasing particle velocity directly increases gas yield to the next resonant cavity stage.

Bench note

Ion particle collision with water molecules increases gas yield (compounding/resonant action)

established · StanBot · 2026

ionizes other liberated atoms beyond light absorption, liberating more electrons inside the resonant cavity (44).

Bench note

Variable gate circuit (55) retrofits to extend gas production across multiple cavities

established · StanBot · 2026

Figure 20C to extend gas production beyond the limits of a single resonant cavity, minimizing power loading while adding another gas control feature.

Bench note

Voltage amplitude (d) must always exceed voltage amplitude (f)

established · StanBot · 2026

Caution: voltage amplitude (d) should never be less than voltage amplitude (f), in order to maintain compounding action within the resonant cavity.

Bench note

Gated pulse on/off time adjustable 1% to 100% duty time

established · StanBot · 2026

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) is adjustable

Bench note

Pulse-voltage across Excitor-Array ionizes argon gas atom

established · StanBot · 2026

Placing a pulse-voltage potential across the Excitor-Array of the Gas Resonant Cavity, while inhibiting electron flow within the Voltage Intensifier Circuit, causes the argon

Bench note

Attenuated variable voltage amplitude expands gated pulse width, forming step-up voltage waveform

established · StanBot · 2026

77), which combined with the Funneling Effect maximizes voltage dynamics across the Resonant Cavity (35).

Bench note

Shunting Effect compensates for water impurity and provides instant power boost

established · StanBot · 2026

The resultant Shunting Effect allows voltage intensity across the Resonant Cavity Zone (35) to compensate for water impurity that might alter operational parameters

Bench note

Ignited gas is expelled through Gas Nozzle Port under dynamic pressure

established · StanBot · 2026

At the termination point of the Resonant Cavity Zone, combustible gas atoms undergo Gas Ignition and are expelled from Gas

Bench note

Electrical Polarization Process separates water molecule into oxygen and hydrogen

established · StanBot · 2026

Once water fuel-droplets fully occupy the Resonant Cavity Zone (35) and are exposed to pulsating opposite electrical voltage fields (49/51)

Bench note

Voltage plates E3/E4 are made of T304 stainless steel using skin effect configuration

established · StanBot · 2026

chemically inert to the gas ionization process and form the tubular Gas Resonant Cavity (410), sized/shaped similarly to the liquid resonant cavity (170).

Bench note

Ambient air gas dielectric breakdown occurs around 17,000 volts across a one-inch gap

established · StanBot · 2026

voltage plates (E3) and (E4), which form the capacitor of the Gas Resonant Cavity (410).

Bench note

Electron Extraction Circuit functions like the VIC but adds an amp-consuming device

established · StanBot · 2026

bulb, is placed between the Resonant Charging Choke (56) and the Gas Resonant Cavity (410), converting liberated electrons into radiant heat/light energy.

Bench note

WFC capacitor forms when water dielectric is placed between excitor plates under opposite polarity voltage

established · StanBot · 2026

The Resonant Cavity forms capacitor (ER) when the dielectric liquid of water (85) is placed

Bench note

WFC water gap dielectric is natural water with no electrolyte added

established · StanBot · 2026

The Water Gap (616), which forms the Taper Resonant Cavity, is occupied by a dielectric liquid identified as natural water (85) having no electrolyte added thereto.