Bench
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.
established VIC
The resistive valve of the stainless steel wire-coil (56/57) combined with its inductance-generated electromagnetic field (62) of Figure (19) opposes electron movement: the dielectric valve of the wir...
established VIC
Resonant Charging Chokes (56/57) are formed using Stainless Steel Electro-Inductance wire-material (430F / T304 or equivalent), which when electrically pulsed transmits voltage intensity while restric...
established VIC
Sequential Switch Circuit (59) switches Booster Pickup Coils (61a-61n) in series with the Secondary Coil (53) output to elevate voltage intensity across Resonant Charging Chokes (56/57).
established VIC
The resultant gated Resonant Pulse-train voltage amplitude is attenuated by the Sequential Voltage Amplitude Control Circuit (59) once the step-up Secondary Coil (53) produces a higher voltage level t...
established VIC
Pulse on-time (T1), held at a predetermined constant voltage level (VL), is adjusted to maximize transference of electromagnetic energy to the Secondary Coil (53) during pulsing operations.
established VIC
The pulse-train (210a-210n) is adjusted so pulse off-time (T2) synchronizes with the collapsing and re-formation of the electromagnetic field coupling across the pulsing transformer (52/53), producing...
established VIC
The water forms a capacitor (E7/E8) in series with Resonant Charging Chokes (56/57) placed on opposite sides of the Resonant Cavity Zone (35), together forming the Resonant Pulsing Circuit (110) of Fi...
established WFC
Electron restriction while varying voltage intensity is achieved by tuning the incoming pulse-train to the Dielectric Properties of Water (47), whose dielectric value of 78.54 becomes an integral part...
established VIC
The Voltage Intensifier Circuit (220) of Figure (18) allows Electrical-Stress variation (SS'=RR'/TT'=UU') because it inhibits electron-flow (amp restriction) into the voltage triggering process (210)...
established WFC
Increasing the applied voltage amplitude (VL) exerts a greater magnitude of opposite Electrical-Stress (SS'-RR'/TT'-UU') across the combustible gas atoms (76, 77a-77b), ejecting a greater number of el...
established WFC
After water dissociation, the liberated gases (76, 77a-77b) undergo Energy-Priming Process (520) to attenuate electrical forces, then Electron Ejection Process (230) of Figure (29) ionizes the release...
established WFC
Once water fuel-droplets fully occupy the Resonant Cavity Zone (35) and are exposed to pulsating opposite electrical voltage fields (49/51) per voltage waveform (280) of Figure (17), the Electrical Po...
established WFC
Injected water fuel-droplets (48a-48n) surround the outer surface area of the exposed positive probe (33) while entering the Taper Resonant Cavity (180), as illustrated in Figure (3B) and Figure (14).
established WFC
The resultant water fuel-mixture (48) is pressurized up to and beyond 125 lbs of fluid-pressure by Fluid Displacement Pump (170) of Figure (13), causing water fuel-droplets (48a-48n) to form as the mi...
established WFC confidence 0.80
The distributor firing sequence is based on 25 rotor revolutions per second, which divided by 1000 gives a timing of 25ms per revolution, governing water injection timing and applied pulse-voltage tim...
established WFC
The water-fuel consumption rate of 0.47 ml/sec divided by 100 injection cycles/sec results in a 7.4 microliter water droplet per injection cycle.
established WFC confidence 0.80
50 engine revolutions/sec divided by 2 (distributor turn ratio) gives 25 rotor revolutions/sec; multiplied by 4 water-fuel injectors yields 100 injection cycles/sec.
established WFC confidence 0.80
For a 50 hp internal combustion engine with an on-road tested gasoline consumption rate of 1 ml/min, the equivalent hydrogen-fuel-of-water rate is 44.4 ml/min, converting to 0.740 ml/sec water-fuel co...
established VIC
A 100 amp/hr battery divided by the 3.3 amp/hr current consumption of the VIC gives approximately 30.3 hours of battery life before recharging is needed.
established VIC
The 40 watts of applied electrical power divided by the 12 volt battery supply yields a current draw capacity of 3.3 amp/hr.
established VIC
The Voltage Intensifier Circuit applies 40,000 volts at 1 milliamp, equating to 40 watts of applied electrical power.
established
Whenever the mass-size of a combustible gas atom is decreased (Md), thermal explosive energy-yield (gtnt) is increased (Ein) during thermal gas combustion/detonation, per the Energy Gas Detonation Equ...
established VIC
For performance reliability and safety, ionized air gases and liquid water do not become energy activated (volatile) until the water-fuel mixture (48) reaches the Voltage Igniter Stage (180).
established
Injected non-combustible gases (45a xxx 45) retard and control the combustion rate of the Hydrogen Fracturing Process during gas-ignition.
established GASPROC
Incoming ambient air gases become laser primed and ionized when passing through the Ambient Air Ionizer (Gas Processor) (80), since the Electron Extraction Circuit (120) captures and consumes ejected...
established VIC
Water droplets exposed to opposing-polarity high intensity voltage fields undergo Electrical Polarization Process (160), separating hydrogen atoms (77a/77b) and oxygen atom (76) and causing electron e...
established VIC
The Voltage Igniter Stage (180) working with the Voltage Intensifier Circuit (110) and Electron Extraction Circuit (120) performs functions simultaneously to initiate and trigger thermal explosive ene...
established
To lower energy-flame temperature, the amount of non-combustible gas is increased or fluid flow rate is reduced uniformly while lowering pulse voltage amplitude (Vo).
established VIC
To elevate energy-flame temperature, fluid-displacement of water and ionized air is increased while non-combustible gas volume flow rate is maintained or reduced, during an increase of applied voltage...
established VIC
Energy-Flame temperature is regulated by controlling the volume flow-rate of fluid mediums (water, non-combustible gas, ionized air) in direct relationship to applied voltage intensity (33/36).