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 WFC
The circuit of FIG. 5 is economical: extremely low primary voltage (0-5 volts) applied to winding 42 yields negligible current/minimal power consumption, while secondary winding 46 output is relativel...
established WFC
Faster rotation of the primary winding's field produces greater pulse frequency; increasing the number of secondary windings increases the number of pulses, while increasing the number of turns on the...
established WFC
In FIG. 5, a low battery voltage drives primary winding 42 of a rotating field (grounded at opposite end); as the field rotates it induces three pulses per revolution across secondary windings 46a, 46...
established WFC
The resistive value of electron inhibitor 70/74 is chosen empirically using a resistive material 72 mixed with a binder, where altering the percentage of resistive material to binder changes resistanc...
established WFC
The electron inhibitor of FIG. 7 comprises a stainless steel sandwich (70/74) with a resistive material between the layers, connected the same way as resistor 60 (between the inner negative plate and...
established WFC
Resistor 60 (FIGS. 1 and 5), a variable resistor for fine tuning, is connected individually (60a...60n) between each inner (negative) plate exciter and ground; since it runs ground-to-ground it causes...
established WFC
Applying positive voltage individually to each outer plate exciter and negative voltage individually to each inner plate exciter (rather than in parallel) eliminates surface leakage between larger pla...
established WFC
The variable pulsing circuit comprises electronic switch SCR 28 operated from opto-coupler timing circuit 26, switching the pulsed d.c. voltage on/off for equal periods; this duty cycling raises the e...
established WFC
The uni-polar pulsating d.c. voltage alone is an improvement in raising voltage amplitude without electron leakage, but has a limit of 4.0 volts (L-2 of FIG. 8) before leakage occurs.
established WFC
In a given size apparatus, successive electron-leakage breakdown levels occur at 4, 5.5, 7, and 8.5 volts (L-2, L-3, L-4, L-5 respectively) as different leakage-inhibiting techniques (uni-polar pulsed...
established WFC
Electron leakage begins at amplitude level L-1; as voltage V1 increases, at leakage onset current begins to flow and voltage V2 drops proportionally to current increase, until arcing causes a dead sho...
established WFC
Varying the duty cycle of the uni-polar pulse DC voltage applied to the plate exciters keeps the pulse amplitude at a maximum level that would otherwise cause electron leakage, while the average ampli...
established WFC
A sophisticated embodiment uses a limiting resistor made of a unique sandwich structure of poorly conductive resistive material and binder (FIG. 7); a second, variable resistor is serially connected t...
established WFC
A current limiting resistor connected between the negative plate exciter and ground prevents current flow (electron leakage) toward the opposite polarity field without causing a voltage drop in the pr...
established WFC
For a given size apparatus, an example minimum voltage level (L-1 in FIG. 8) of 2.5 volts applied to the pair of plate exciters is insufficient to force electrons to leak from the negative plate excit...
established confidence 0.80
A variable circuit (30) varies the amplitude of the rectified voltage from bridge rectifier 15, directly controlled by the gas rate function, operating separately, sequentially, and together with the...
established
In the first embodiment, AC input at terminals 12/14 is fed through a variable-inductance transformer (field 11) to a bridge rectifier (15); because the rectifier inverts the negative swing, the outpu...
established WFC
As applied voltage increases past a limiting level (or spacing decreases past a minimum), electron leakage from the negative plate exciter increases until an electrical arc forms directly between the...
established WFC
Closer spacing between plate exciters increases the attractive force on charged hydrogen/oxygen atoms, increasing gas production rate; with fixed spacing, increasing voltage amplitude increases gas yi...
established WFC
The pulsing voltage on the plate exciters is matched in repetition rate to the wavelength of the spacing between the plate exciters, causing the hydrogen and oxygen charged atoms' physical motion towa...
established WFC
The gas-generation process is voltage-dependent and current-restricted, unlike Faraday's Laws electrolysis where decomposition rate depends on current independent of voltage; no electrolyte is added a...
established WFC
Simultaneous application of a positive voltage pulse to one plate exciter and a negative pulse to the other, in a vessel of natural water, forms polarized voltage zones: the positive plate zone attrac...
established
Because current output cannot exceed that supportable by a given winding, and there are no slip-rings, brushes, rubbing contacts, or opposing magnetic fields (unlike a conventional auto alternator), t...
established
Any practical number of electromagnet series and winding rings may be added in cascade for multiple power increases; because each complimentary unit is itself a voltage amplification stage, each addit...
established
By pulsing the input voltage to the electromagnets and shortening the duty cycle (short pulse duration relative to the constant-frequency output pulse train), the output voltage magnitude is drastical...
established
Each winding ring (30 and/or 40) can carry multiple discrete windings (35a...n), each with its own output terminals (37a...n), providing electrically isolated voltage sources for a like number of sepa...
established
A preferred embodiment adds a third and fourth series of electromagnets on the upper side of the rotating disc, energized by the voltage/current induced in the first winding ring (30) via wire 31. A s...
established
Since a voltage is induced in the winding (35) of ring (30) only while it passes through one of the magnetic fields, the output voltage at terminal 42 is a pulsed direct current, regardless of whether...
established
Although increasing pulse repetition rate of the input voltage increases output voltage magnitude, the frequency of the output pulses remains constant because it is dependent on the fixed number of ma...
established
The induced voltage/current in the winding is proportional to: (1) the number of turns on the winding ring, (2) the strength of the magnetic fields (itself dependent on input voltage magnitude at term...