established VIC
Inductor L1 and L2 are physically identical and behave identically
Inductor (L1) acts and performs in like manner to Inductor (L2) since both Inductor (L1/L2) are physically the same size and shape.
Bench
Engineering notebook
1,315 published findings from the ongoing work — what has been established, calculated and observed at the bench, each traceable to the session that produced it.
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established VIC
Inductance Reactance determines voltage swing and establishes impedance to minimize heat loss
Inductance Reactance determines the voltage swing from the highest voltage level (Vn) to the volts switch-off point (Vff), and establishes Impedance (FL) which minimizes heat loss of electrical input...
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established VIC
Step Charging Effect occurs when pulse off-time is less than on-time
Inductance Reactance effectuates the 'Step Charging Effect' (680, per Figure 7-7) when the Pulse off-time (T2) is less than the Pulse on-time (T1).
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established VIC
Inductance Reactance doubles input frequency at 50% duty cycle
Inductance Reactance doubles the input frequency (64a * 64b) when a 50% Duty Cycle Pulse (T1 = T2) is inputted, while also increasing applied voltage amplitude (Vo-Vn).
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established VIC
Stored energy is controlled by input voltage amplitude and gated pulse frequency
Inductance Reactance directly determines Stored Energy (Wa), which is controlled by the input Voltage Potential as attenuated or varied via Voltage Amplitude (Vo, Va, Vb-Vf, Vg-Vn, per Figure 7-13) an...
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established VIC
Stored energy formula for inductance
Stored energy (Wa) in Joules (Watt-seconds) is a function of Inductance (L) in Henries and current (I) in amperes, per the stated energy relationship for Inductance Reactance.
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established VIC
Lengthening L1/L2 inductors raises voltage potential across Resonant Capacitor (ER)
Lengthening the Inductor (L1/L2) lengths applies an even higher Voltage Potential (66/67) across the Resonant Capacitor (140-170, labeled ER), because Inductance Reactance stores energy.
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established VIC
Voltage Inducement Process occurs without amp influx between positive and negative voltage potentials across Resonant Cavities
The electromagnetic coupling fields encourage the Voltage Inducement Process across the VIC Impedance Network Circuit without amp 'influxing' (i.e., inhibiting amp flow) between the Positive Voltage P...
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established VIC
430F/430FR stainless steel wire is electromagnetically inductive without becoming permanently magnetized
The Electron Inhibiting Effect combined with the Voltage Enhancement Effect is achieved because stainless steel 430F/FR wire-material is electromagnetically inductive to incoming flux lines without th...
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established VIC
Higher amplitude pulses drive coupling field through both inductors, increasing opposite-polarity voltage across the Resonant Cavity
At elevated voltage amplitudes, the primary electromagnetic coupling field (Rp), transmitted via the Inductance Pulsing-Core through the VIC Coil Assembly, passes through both Inductors L1 and L2 simu...
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established VIC
Electron Inhibiting Effect prevents electron flow/arc-over across the water capacitor gap
The blocking action of L2's field prevents and inhibits electron flow from passing through or arcing over the capacitor water-gap (Cp); this is termed the 'Electron Inhibiting Effect' (631).
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established VIC
L1's field performs Capacitance Charging Effect while L2's field restricts electron flow
Inductance Field L1-FL1 performs the 'Capacitance Charging Effect' (628), while at the same time Inductor Field L2-FL2 restricts electron movement through the VIC Impedance Network Circuit by locking...
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established VIC
Pulse frequency is tuned to water's dielectric property to minimize current while maximizing voltage
Adjusting the programmable pulse-waveform input signal frequency 'tunes-in' to the dielectric property (Re) of water, reducing amp flow to a minimum while allowing voltage potential to rise toward inf...
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established VIC
L1 and L2 are bifilar wound in equal length for matched electromagnetic field strength
Both Inductors L1 and L2 are bifilar wound in equal length so their electromagnetic field intensities are equal (FL1 = FL2), promoting the 'Electron Bounce' phenomenon.
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established VIC
Inductors L1-L2 act as Resonant Charging Chokes forming the Resonant Voltage Effect Circuit
Inductors L1-L2 (Figure 7-6), placed on opposite sides of the water-capacitor ER, act as Resonant Charging Chokes (614/615) and together form the Resonant Voltage Effect Circuit (670).
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established VIC
Inductance Reactance increases voltage across water-capacitor beyond applied voltage potential
Inductance Reactance occurs when resistance (Rs), capacitance (Cd), and Inductance (FL) interact during D.C. Pulsing, increasing voltage across the water-capacitor (ER) beyond the applied Voltage Pote...
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established VIC
VIC dielectric coatings rated 3KV/mil across -40C to 155C automotive range
All dielectric coatings on the VIC wire have an effective 3KV per mil dielectric value and are formulated to endure the automotive temperature range from -40°C to 155°C.
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established VIC
VIC magnet wires use solderable Nysol polyurethane nylon jacket insulation
Both magnet wire sizes (622/623), the Primary and Secondary Pickup Coils, use solderable Nysol (Polyurethane Nylon Jacket) insulation enamel coating as an electrical shield-material.
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established VIC
VIC choke wire uses Pyre-ML/Himol polymer coating for thermal/mechanical resistance
The stainless steel resonant charging choke wire (614/615) is coated with the 'Pyre-ML' trade name 'Himol' polymer coating-material to impart thermal and mechanical resistance.
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established VIC
VIC Secondary Pickup Coil uses 35 AWG copper wire at 13K ohms/lb
The Secondary Pickup Coil (623) of the VIC uses 35 AWG (.007 in) copper wire equal to 13K ohms per pound weight.
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established VIC
VIC Primary Coil uses 22 AWG copper wire at 5.1933 ohms/lb
The Primary Coil (622) of the VIC uses 22 AWG (.028 in) copper wire equal to 5.1933 ohms per pound weight.
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established VIC
VIC Resonant Charging Chokes use 36 AWG 430F/FR stainless steel wire at 60 micro-ohms/cm
Resonant Charging Chokes (614/615) are made of 430F/FR 36 AWG (.006 in) stainless steel (s/s) wire, which equals 60 micro ohms per centimeter.
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established VIC
VIC series resistance determined by wire material composition
The series resistance value (Rs) of the VIC choke/coil windings is determined by the composition of the wire material in terms of its ohmic value (electrical resistivity) per given length and diameter...
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established VIC
VIC choke turns form series capacitors via insulated dielectric coating between wire surfaces
The circular-spiral turns of wire in the VIC choke, forming parallel electrical surfaces, are separated by an Insulated Dielectric Coating Material which forms a series of capacitors (Cda-Cdn) when ma...
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established VIC
VIC resonant charging chokes are coil-wrapped to increase magnetic flux intensity
Inductors (614) and (615) of the VIC are wound or coil-wrapped, per the multi-layer equation (Eq. 20), to increase magnetic flux intensity between the turns (618a-618n) of the coil-wrap (640).
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established WFC
WFC capacitor forms when water dielectric is placed between excitor plates under opposite polarity voltage
The Resonant Cavity forms capacitor (ER) when the dielectric liquid of water (85) is placed or injected between electrical conducting plates (E9/E10) while applied voltage Potential of opposite polari...
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established WFC
Surface Polarity Effect (skin effect) helps maintain water molecule alignment during pulsing
The resultant Surface Polarity Effect (skin effect) (624) supplies a residual atomic Electrical Charge Field that helps maintain molecular alignment of water atoms (617) during pulsing operations.
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established WFC
Excitor plate molecular alignment persists after pulse off-time to aid next pulse
After the applied voltage forms molecular electrical orientation (625a-625n) in the plate material, this orientation remains in electrical atomic alignment after pulse off-time (T2), aiding transferen...
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established WFC
Excitor plates are 430 T304 stainless steel that undergo particle alignment under voltage
The stainless steel (s/s) T304 material forming Voltage Zones (E9/E10) undergoes particle alignment of its atomic structure when exposed to applied electrical voltage fields (66/67), producing molecul...
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established WFC
Applied voltage causes molecular polarization alignment of water molecules
Applied voltage Potential (66/67) causes and sets up Molecular Polarization Alignment (617) via electrical molecular rotation, positioning each water Molecule (85a-85n) under opposite electrical attra...