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
Beyond amp-restricting characteristics, the paired bifilar-wrapped spiral coils cause voltage level enhancement beyond applied voltage input because the distributed capacitance (C1a...C1n = C2a...C2n)...
established WFC
The WFC Electrical Polarization Process overcomes the self-destructing effect of prior-art electrolysis by utilizing chemically inert Stainless Steel (T304, decomposition rate .0001/yr) forming opposi...
established WFC
In prior-art electrolysis, electrolyte (e.g., sodium or potassium hydroxide, typically 20% per liquid volume in distilled water) creates a dead-short condition not allowing voltage potential to exceed...
established WFC
Stainless Steel (T304) material, chemically inert to the Electrical Polarization Process, forms the voltage zones called Excitor Plates when immersed in natural water undergoing the Electrical Polariz...
established VIC confidence 0.80
Other amp restricting circuits are applicable, such as applying a variable (0-5) volts unipolar pulse-frequency across the armature field-winding of a de-regulated alternator functioning as a pulse-vo...
established VIC
Connecting the Amp Inhibiting Circuit (Figure 8XA) to an external pulsing voltage source such as a step-up transformer forms the Voltage Intensifier Circuit (VIC, Figure 8XA1), as illustrated in the V...
established VIC
The length and diameter size of the copper-wire spiral-wrapped coils (56/62 of Figure 8XA), paired together and electrically energized in conjunction with the applied voltage pulse-frequency, determin...
established VIC
The high pulse-voltage energized Resonant Charging Choke (56) of Figure 7-1/8XA creates an electromagnetic coupling field (Rp1) that crosses over and passes through the electrically ground-connected R...
established VIC
The Amp Inhibiting Circuit (Figure 8XA) is composed of two copper wires bifilar-wound (wrapped) about a magnetic induction core, allowing amp restriction (minimizing current leakage) while encouraging...
established WFC confidence 0.80
An external 'Electrical Attraction Force' (SS' = RR') exposed to the water molecule is described as all that is required to dissociate the water molecule via 'Electrical Stress' from opposite voltage...
established WFC confidence 0.80
The text states that applied Voltage Potential during pulsing operations is not consumed in an electronic circuit, framing the WFC process as electrical stress rather than current-consuming.
established WFC
The text establishes the dielectric value of water as being 78.54, related to the stability of the water molecule and the pairing of the oxygen atom's outer 'L' orbital electrons.
established EPG
By encasing or coating the closed-loop Electrical Particle Generator (EPG) with a waterproof material, the EPG can be used underwater or in the deepest realm of space.
established
For maximum operational efficiency of the Stator assembly (30), the magnetic keeper-bar (39) also acts as a magnetic field spoiler by disrupting particle alignment, collapsing the magnetic field (4/11...
established
To reach maximum acceleration performance, the Magnetic Keeper Bar (39) moves the moving fluid-mass (3) closer to the bearing surface (36), enhancing magnetic attraction force (53).
established
By simply varying applied voltage and pulse triggering rate, the magnetic mass velocity (61) is likewise varied.
established confidence 0.80
The coil arrangement and electrical hookup (56/57 and 58/59) shown in Figure 26E provides temporary braking power during switching operations.
established
The Directional Switch (43) applies AC electrical power to the opposite side of the capacitor (33) to cause the magnetic sweeping field (38a-38n) to reverse direction (55), enabling electrical reversi...
established
In other applications, the charging capacitor (33) can be replaced by an AC Triac triggering circuit or SCR triggering circuit.
established
Applied AC electrical power of 110 Vac 60 Hz to the capacitor (33) provides an electrical charge/discharge cycling rate that allows adjacent coils to be fired in proper sequence.
established
Wiring the coils (46a-46n) in proper sequence with the capacitor (33) produces a sweeping magnetic wave (38a-38n) across the fluid-mass (3), allowing fluid-mass movement (54).
established
Voltage applied to coil (46) causes current flow and creates a magnetic field (41) that passes through the magnetic shunt (48), causing magnetic flux-lines to align the field effect to the fluid-mass...
established
The typical cross-sectional diameter of the tubular pathway (36) may vary up to and beyond 1/2 inch outer diameter.
established
The Magnetic Shunt Assembly (48) is composed of electrical steel that pushes the magnetic field toward the moving permanently magnetized mass, per Figure 26F.
established
The metal discs (49a/49b) extend beyond the Magnetic Key (51) to provide open air fins (52a-52n) for heat dissipation during coil pulsing.
established
A second magnetic bar key (39) is inserted into the tubular pathway (36) and aligned to the coil-array (30/30), forming an air gap (42) between the tubular surface and the Magnetic Key Assembly (39),...
established
The Magnetic Shunt Assembly (48) is composed of two metal discs (49a/49b) placed on opposite sides of the coil-bobbin (46/47), with a Magnetic Key (51) situated between the discs adjacent to and wrapp...
established
Coil (46) is wound with 400 turns of 30 gauge insulated wire on a molded nylon bobbin (47) placed inside a magnetic shunt-assembly (48) and slipped over the tubular bearing (36), per Figures 26E, 26F...
established
Normal operating velocity is 30 fps for single-phase units (30) and 90 fps for three-phase units (30/30/30).
established
Fluid-mass acceleration occurs in less than 10 milliseconds and reaches a controlled operating speed during recycling; time/distance depends on net force applied and fluid-mass moved.