(L2)
Inductors
Also written Inductor · Lengthening Inductor · Both Inductors · Inductor Cores · Inductor Field · choke coils · Inductance
Where it is first named
Inductance Reactance not only increases voltage across water-capacitor (ER) beyond applied Voltage Potential (626) of Figure (7-7) but, also, establishes "Impedance Field" (FL) across Inductors (L1-L2) of Figure (7-6) which acts and performs as Resonant Charging Chokes (614/615) of Figure (7-1) once placed on opposite side of capacitor (ER) forming Resonant voltage Effect Circuit (670) of Figure (7 …
How it is written
- (L1/L2) 11× with (L1) Inductor
- (L2) 5×
- (L1-L2) 2× with (L1) Inductor
- (L2-FL2) 1× with (FL2) Distributed Inductance
- (LI/L2) 1× with (LI) Both Inductors
Drawings 34
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Inductors (L1-L2) of Figure (7-6) · Inductance Reactance (Rs - Cd - FL)
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coil-structures (580) of Figure (6-1) · Voltage Intensifier Coil-Assembly
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Voltage Intensifier Circuit (620) of Figure (7-1) · Instant Explosion of Water
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(700) of Figure (7-9) · Instant Explosion of Water
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(620) of Figure (7-1) · Instant Explosion of Water
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(620) of Figure (7-1) · Resistance (Rs)
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(630) of Figure (7-2) · Inductance (FL)
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(614) of Figure (7-1) · Inductance (FL)
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(580) of Figure (6-1) · Inductance (FL)
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(670) of Figure (7-6) · Inductance (FL)
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Inductor (614) of Figure (7-1) · Inductance (FL)
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LC circuit of Figure (7-2) · Inductance (FL)
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(614) of (7-1) · Inductance (FL)
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Figure (7-1) · Capacitance (Cd)
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(670) of Figure (7-6) · Capacitance (Cd)
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"Electron Bounce" phenomenon (700) of Figure (7-9) · Inductance Reactance (Rs - Cd - FL)
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(620) of Figure (7-1) · Inductance Reactance (Rs - Cd - FL)
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(580) of Figure (6-1) · Multi-layer Coil
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The figure it sits on · Taper Resonant Capacitor (ERt)
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Resonant Capacitor (140 -170) of Figure (7-6) · Capacitance Reactance
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Capacitor (ER) of Figure (7-2) · Capacitance Reactance
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Resonant Voltage Effect (670) of Figure (7-6) · Transformer Action
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"Electron Clustering" (Grouping/collecting negative charged particles at a given point) (700) of Figure (7-9) · Transformer Action
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Choke-Coil (62) of Figure (7-1) · Transformer Action
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(700) of Figure (7-9) · Electron Bounce Phenomenon
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The figure it sits on · WFC 426 - Illustrations
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The figure it sits on · WFC 426 - Illustrations
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The figure it sits on · WFC 426 - Illustrations
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(580) of Figure (6-1) (WFC memo 425) · 8-2 - Traveling Voltage Wave-Guides
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(631) of Figure (7-9) · 8-3 - Electrical Voltage-Pulse Wave-Transmission
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(620) of Figure (7-1) · 8-6 - VIC Voltage Sync-Pulse Circuit
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"Resonant Charging Choke" (56) of Figure (7-1) · Propagating Electrical Stress
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(580) of Figure (6-1) · Voltage to Amp Differential Ratio
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(620) of figure (7-1) · Voltage to Amp Differential Ratio
Where it is named · 20
Inductance Reactance (Rs - Cd - FL) 7×
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Inductors (L1-L2)
Inductance Reactance not only increases voltage across water-capacitor (ER) beyond applied Voltage Potential (626) of Figure (7-7) but, also, establishes "Impedance Field" (FL) across Inductors (L1-L2) of Figure (7-6) which acts and performs as Resonant Charging Chokes (614/615) of Figure (7-1) once placed on opposite side of capacitor (ER) forming Resonant voltage Effect Circuit (670) of Figure (7 …
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Both Inductors (LI/L2)
Both Inductors (LI/L2) are Bifilar wound in equal length to optimize the electromagnetic field strength (FL) in equal electromagnetic intensity (FL1 = FL2) to encourage and promote "Electron Bounce" phenomenon (700) of Fig …
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Inductor Field (L2-FL2)
while, at the same time, Inductor Field (L2-FL2) restricts electron movement through VIC Impedance Network Circuit (620) of Figure (7-1) since Inductance Field (FL2) locks onto Electrons Magnetic Field (547) of Figure (5-9) to block the movement of electron flow toward Positive Voltage Potential (66)
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Inductors (L1/L2)
… ic coupling field (Rp) of Figure (7-8) transmitted by way of Inductance Pulsing-Core (190) of Figure (3-23) as to VIC Coil Assembly (580) of Figure (6-1) enters into and passes through both Inductors (L1/L2) simultaneously and offers not only further electron-flow restriction (Rp1/Rp2) to both Inductor Chokes (56/62) but automatically increases voltage potential (xxx V g xxx Vh xxx Vn) of opposite voltag …
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Inductor Cores (L1/L2)
... overcoming any potential loss of pulse signal due to resistive interaction (Rsl/Rs2) of either or both Inductor Cores (L1/L2) wire-material to the formation of Inductance Fields (FL1/FL2) during reoccurring pulse on-time (T1a xxx T1n).
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Electron Inhibiting Effect (631) in direct relationship to Voltage Enhancement Effect (528) is accomplished since stainless steel 430F/FR wire-material is "Electromagnetic Inductive" to incoming electromagnetic flux-lines (71a xxx 71n) (Rp) without (s/s) inductor-wire-coil (L1/L2) becoming permanently magnetized
In-Line Circuit Components 4×
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Lengthening Inductor (L1/L2)
Lengthening Inductor (L1/L2) lengths applies an even higher Voltage Potential (66/67) across Resonant Capacitor (140 -170) (ER) since Inductance Reactance "Stores" Energy and, is expressed by:
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Inductor (L2)
Inductor (Ll) acts and performs in like manner to Inductor (L2) since both Inductor (L1/L2) are physically the same size and shape.
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Inductor (L1/L2)
Inductor (Ll) acts and performs in like manner to Inductor (L2) since both Inductor (L1/L2) are physically the same size and shape.
Capacitance Reactance 3×
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Inductance (L1/L2)
Capacitance Reactance is determined by the insulation resistance (Rs+Re) and Inductance (L1/L2) interacting together during D.C. Pulsing.
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Inductor (L2)
Plate Inductance (Lc) is Inductance Reactance of Inductor (L1 ) and Inductance Reactance of Inductor (L2) in series with Resonant Capacitor (140 -170) of Figure (7-6) as to (690) of Figure (7-8).
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Inductors (L1/L2)
In terms of Component Reactance, Inductors (L1/L2) should always be larger than Capacitor (ER) of Figure (7-2) in order to maximize amp restriction to enhance "Voltage Deflection" (SS' - 617a xxx 617n - RR') of Figure (7-4) and, is expressed by :
Circuit Resistance 1×
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(Z3) is determined by inductance field strength (FL2) and resistive value (RS2) (typically 11.6KQ) of stainless steel (sls) wire-coil (62) (L2) when being exposed to the same external magnetic coupling field strength (Rp)
Transformer Action 2×
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(L1) and (L2) are the inductances of each individual choke coil (56)(62) in series with Secondary Coil (52) Electrical Voltage Potential (700) of Figure (7-9) and being exposed to the same Voltage Transformer (26 - 53 - 52) magnetic field (Rp) with aiding fields,
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(M) is the mutual inductance of choke coils (L1/L2) since Transformer Magnetic Field (Rp) is the excitation External Magnetic Field (Rp1/Rp2) by way of Unipolar Pulsing Core (53).
Electron Bounce Phenomenon 3×
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Coupling Inductance (Rp1) and (Rp2) in (690) of Figure (7-8) is further expressed in the following equation: Where, (Lt cc) is the total inductance of Choke Coils (FL1 - FL2), (L1) and (L2) are the inductance of each individual choke coil (56)(62) in series with Secondary Coil (52) Electrical Voltage Potential (700) of Figure (7-9) and being exposed to the same Voltage Transformer (26 - …
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choke coils (L1/L2)
… Electrical Voltage Potential (700) of Figure (7-9) and being exposed to the same Voltage Transformer (26 - 53 - 52) magnetic field (Rp) with aiding fields, (M) is the mutual inductance of choke coils (L1/L2) since Transformer Magnetic Field (Rp) is the excitation External Magnetic Field (Rp1/Rp2) by way of Unipolar Pulsing Core (53).
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… electrical Voltage potential 66 since the Voltage Coefficient of Inductance (FL1/FL2), Voltage Coefficient of Capacitance (Cd1/Cd2), and Voltage Coefficient of Resistance (Rs1/Rs2) across choke coils (L1/L2) are the same values
