Bench
383 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
Seven recurring mistakes in resonant HV transformer design, worth checking a sweep spec against: (1) resonating only the nominal L and C while ignoring parasitic elements that can shift the real opera...
established VIC
Primary-side and secondary-side (choke-side and cell-side) inductance/capacitance/resistance values must be referred to the SAME side before comparing them — raw measured values are not directly compa...
established VIC
An HV resonant transformer/tank system is better understood as two coupled resonators (primary/choke side, secondary/cell side) exchanging energy through mutual inductance M = k·√(L₁L₂), 0 ≤ k ≤ 1. Tw...
established VIC
At series resonance, V_L ≈ V_C ≈ Q·V_drive, so a higher loaded Q does produce higher voltage magnification. But excessive Q also produces: larger circulating current, narrower useful bandwidth, greate...
established VIC
A real HV step-up transformer's leakage inductance and self/inter-winding capacitance are usually called "parasitics" because in an ordinary transformer they cause ringing and voltage spikes. But in a...
established VIC
Under computer control, the Voltage Intensifier Circuit is energised by a normal 12V car battery to generate high voltage pulses at very low current (<1 milliamp), with the voltage responsive to the t...
established VIC
Six Voltage Intensifier Circuit bobbins, manufactured in the UK at Stan Meyer's request, arrived and were confirmed to be of the necessary quality, indicating the VIC bobbin design could be replicated...
established VIC
Per Appendix B Note 1, Choke-Coil (62, Fig 7-1) magnetic field (FL2) during pulse on-time impedes electron flow (since electron mass is electromagnetic and interacts with magnetic field strength), cau...
established VIC
In Voltage Intensifier Circuit Diagram (AA), a gated variable amplitude pulse train (49a...49n) passes through a blocking diode into Resonant Charging Choke (56, primary) and Resonant Charging Choke (...
established VIC
Pulse-voltage repetition rate sets up a step-up electrical charging effect since the Resonant Cavity functions as a Capacitor (ER) due to the dielectric value of water (78.542), which becomes an integ...
established VIC
The paired coil wires' opposite voltage potentials (positive electrical attraction force B+ = negative electrical attraction force B-, called Electrical Stress SS'=RR' as to (160) of Figure 3-26) are...
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 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 VIC confidence 0.80
The Voltage Intensifier Circuit (VXA) prevents electron replacement on the polarized gas atoms, and the water molecule is exposed to the same voltage stimulation process.
established VIC confidence 0.80
The Electrostatic Generator (6), referred to as Voltage Intensifier Circuit (9XA), applies opposite voltage potential to the screen-grids (4/5) during the Gas Filtering Process to separate positive an...
established VIC
Blocking diode (58) prevents electrical shorting from occurring across pickup coil (56) during pulsing operations.
established VIC
Voltage potential (57) gates ON unidirectional diode (58), allowing the potential to pass through in-line charging Choke Coil (59) to Excitor Plate (61), forming positive voltage field (62); the choke...
established VIC
Pickup coil (56) is composed of resistive wire, restricting amp flow within the voltage intensifier circuit (60), per WFC Tech Brief Section 4 (Voltage Attenuation Circuit Design Specs).
established VIC confidence 0.80
Only several gigavolts (billionths of a volt) of applied power are needed to initiate molecular orientation; an amp restricting circuit (9XA, per Figure 20YD) allows this orientation process to occur...
established VIC
In the rotary alternative (Fig 11A), variable amplitude pulsing circuit (21) energizes armature coils (22) to produce pulsating electromagnetic fields (23) rotated through pickup coils (24), generatin...
established VIC
System setup requires filling the water fuel cell, adjusting excitor plate distance/volume, connecting to the VIC, then tuning to the resonant characteristic of the total system by adjusting the pulse...
established VIC
Modulator inductor coils (9 and 12), made of resistive wire, act as DC current limiters during initial fuel cell charging; the low-Q resonant charging circuit of the fuel cell (10, 11) in series with...
established VIC
Terminal resistor (12), affixed on the ground side of the excitor array between bypass coil (9) and ground terminal (13), is composed of resistive wire wound in the same coil configuration as bypass c...
established VIC
The high-frequency voltage bypass coil (9), wound of resistive wire, duplicates the incoming voltage pulse train from the secondary coil (8) via inductive coupling: the pulse creates an oscillating ma...
established VIC
In the Voltage Intensifier Circuit transformer, the primary coil is copper wire and the secondary coil is resistive wire, both insulated to prevent shorting; the two coils are joined on the ground sid...
established VIC
Optocoupler (4), triggered by variable gate circuit (5), gates the pulse voltage frequency waveform on/off; the gated pulse train on-time (16) vs off-time (17) is adjustable from 1% to 100% duty cycle...