Bench
59 published findings from the ongoing work — what has been established, calculated and observed at the bench, each traceable to the session that produced it.
established GASPROC
The Static Electrical Charging Effect (585) is set up when an applied Electrical Stress Wave-form (RD/RD' - ST/ST') is simultaneously applied on opposite sides of the hydrogen atoms, propagating 'Part...
established GASPROC
Voltage Zones (ER) become Voltage Wave-Guides (770) of Figure (8-1) by the use of chemically inert T304 stainless steel material, forming Electrical Conductance Zones (Skin Effect) (587) that allow un...
established GASPROC
The Vacuum Chamber (Cv) containing the hydrogen gas atoms is composed of a high temperature quartz material (918).
established GASPROC
Stimulated Emitted Energy Radiation (Ers) from hydrogen atoms is amplified (compressed together) when discrete Emitted Energy Radiation Wavelets (Ersa xxx Ersn) from each hydrogen atom are reflected b...
established GASPROC
The Energy Pumping Stage (520) of Figure (5-3), as related to (500) of Figure (5-1), attenuates the hydrogen energy aperture (7) of (550) of Figure (5-8) when applied Opposite Voltage Potential (Va xx...
established GASPROC
The gas medium in the Capacitor Vacuum-Gap (Cv) exhibits a dielectric value, and amp in-fluxing is held to a minimum (prohibiting amp leakage into and away from Cv) due to the bifilar wrapped resonant...
established GASPROC
In the Optical Thermal Lens, Water Cap (Cp) is transformed into Vacuum Cavity (Vc) where only hydrogen atoms in a fluid medium are exposed to Voltage Zones (ER), forming Capacitor Gap (Cv), as illustr...
established GASPROC
The Electron Extraction Process (230, 270) ionizes highly energized combustible gases to decrease atomic mass, while an applied traveling voltage waveform (57) of opposite electrical polarity (E9-66/E...
established GASPROC confidence 0.80
The Electron Extraction Process ionizes the highly energized combustible gases to decrease atomic mass, while an applied Voltage Pulse-Frequency of opposite electrical polarity initiates the triggerin...
established GASPROC
The electron extraction circuit (7 in Fig. 7 reference) ionizes incoming ambient air gases and consumes electrons ejected from the gas atoms, while injected laser energy energizes the ionized gases to...
established GASPROC
In processor 40, treatment chamber 50 encloses batteries of solid-state lasers (41,42,43) concentrically mounted around a charging cell formed from positively and negatively charged concentric rod 44...
established GASPROC
The air gas processor (20/40) treats only ambient air gases (not the combustible gas produced by the fuel cell) on a reduced scale — the gases are charged and ionized and energy-enhanced before being...
established GASPROC
Incoming ambient air gases are laser primed and ionized when passing through a gas processor; an electron extraction circuit (Figure 5) captures and consumes ejected electrons in sink 55, preventing e...
established GASPROC
The electron extraction process is maintained during gas flow-rate changes by varying the trigger pulse rate relative to applied voltage, and prevents spark-ignition of combustible gases traveling thr...
established GASPROC
The incoming positive waveform applied to the resonant cavity voltage zone through a blocking diode is synchronized with the pulse train applied to the gas resonant cavity via an alternate gate circui...
established GASPROC
The extractor grid circuit allows electrons liberated in the gas resonant cavity to flow to an electrical load (55, e.g. a light bulb or resistive heater) when a positive electrical potential is appli...
established GASPROC
The electron extractor grid circuit (Figures 8A/8B) is applied to the gas resonant cavity of Figure 5A or 5B; extractor grid 56 is placed adjacent to electric field producing members 44 and 45 within...
established GASPROC
An electron sink (grid element, Figure 8A) extracts electrons from resonating ions to destabilize their nuclear electron configuration; this extraction is synchronized with the pulsing electrical fiel...
established GASPROC
The processor (40) operates per the method of U.S. Pat. No. 4,826,581, but in this system it charges and ionizes ambient air gases (not the combustible gas produced by the fuel cell) on a reduced scal...
established GASPROC
The air gas processor (40) encloses a treatment chamber (50) with batteries of solid state lasers (41,42,43) concentrically mounted around a charging cell formed from positively and negatively charged...
established GASPROC
Per claim 2 steps J-L, ionized gas atoms are subjected to electromagnetic wave energy of a predetermined frequency to induce further electron resonance, increasing electron energy level; electrons are...
established GASPROC
Per claim 2 steps G-H, the collected hydrogen/oxygen gas mixture (plus any other gases formerly dissolved in the water) is subjected to a pulsating polar electric field that distends electron orbital...
established GASPROC
The electron extraction process is maintained during gas flow-rate change by varying the trigger pulse rate relative to applied voltage, and it prevents spark-ignition of combustible gases traveling t...
established GASPROC
A blocking diode directs the electron flow to the electrical load while resistive wire prevents voltage leakage during pulse-train 'ON' time; the incoming positive waveform is synchronized with the pu...
established GASPROC
The electron extractor grid is attached to a circuit (FIG. 8B) allowing electrons to flow to an electrical load (55) when a positive electrical potential is placed on the opposite side of the load; as...
established GASPROC
Repetitive application of a voltage pulse train (A through J of FIG. 6A) incrementally achieves the critical state of gas ions; as gas atoms/ions elongate during electron removal, electromagnetic wave...
established GASPROC
The gas ions incrementally reach a critical state after a high-energy resonant state, at which point the atoms no longer tolerate missing electrons or the unbalanced electrical field; the system colla...
established GASPROC
The electron extractor grid circuit (FIGS. 8A and 8B) is applied to the assembly of FIG. 5A or FIG. 5B and restricts electron replacement; the extractor grid (56) is placed adjacent to electric field...
established GASPROC
Synchronization between the electron extraction/sink circuit (FIG. 8B) and the pulsing circuit of FIG. 7 is achieved by interconnecting point 'A' of the gate circuit of FIG. 8B to point 'A' of the pul...