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(70)

Voltage Triggering Process

Also written Circuit · Variable pulse frequency generator · Pulse Frequency Generator · pulse generator

Where it is first named

Incoming clock pulse (21a xxx 21n) of Figure (3-16) originating from Pulse Frequency Generator (70) of
— Acceleration Control Circuit (30)

How it is written

  • (70) 18×

Drawings 34

Where it is named · 18

Acceleration Control Circuit (30) 1×

  1. Pulse Frequency Generator (70)

    Incoming clock pulse (21a xxx 21n) of Figure (3-16) originating from Pulse Frequency Generator (70) of

    Read it there → · on Figure (3-16)

Variable Pulse Frequency Generator (70) 2×

  1. Circuit (70)

    Circuit (70) of Figure (3-5) is a multi pulse-frequency generator which produces several clock pulses (simultaneously) having different pulse-frequency but maintaining a 50% duty cycle pulse (39) configuration, as illustrated in Figure (3-16).

    Read it there → · on Figure (3-5)

  2. Circuit (70)

    Circuit (70) also produces another independent and separate clock signal (41a xxx 41n) which is electrically transmitted to and become incoming clock signal (42) for Gated Pulse Frequency Generator Circuit (80) of Figure (3-5).

    Read it there → · on Figure (3-5)

Gated Pulse Frequency generator (80) 1×

  1. pulse generator (70)

    Pulse train (44a xxx 44n) is exactly the same as pulse train (41a xxx 41n) and its established pulse frequency (number of pulse cycles per unit of time) changes uniformly when pulse generator (70) of Figure (3-5) is calibrated and adjusted for system operations.

    Read it there → · on Figure (3-5)

Voltage Intensifier Circuit (60) 1×

  1. Variable pulse frequency generator (70)

    Variable pulse frequency generator (70) of Figure (3-5) varies and adjusts pulse frequency (63) (50% duty cycle pulse) while gated pulse frequency generator (80) of Figure (3-5) varies and adjusts pulse width (54a xxx 54n).

    Read it there → · on Figure (3-5)

Water Fuel Injector (Taper Resonant Cavity Chamber) 2×

  1. The injected water fuel-droplets (48a xxx 48n), now, surrounds outer surface area of exposed positive probe (33) while entering into Taper Resonant Cavity (180), as illustrated in (70) of Figure (3B) as to Figure (14).

    Read it there →

  2. (70) of Figure (3B)

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In Application of Usage 1×

  1. The Hydrogen Fracturing Process (390) of Figure (3-42) simply triggers and releases atomic energy (gtnt) from natural water (85) of Figure (3-26) by retarding and preventing the reformation of the water molecule being subjected to sub-critical state (520) of Figure (5-3) during thermal gas ignition (100) of Figure (4-8) as to (70) of Figure (4-5).

    Read it there → · on Figure (4-5)

Taper Water Fuel Injectors 1×

  1. ... producing thermal explosive energy-yield (16), as further illustrated in (70) of Figure (4-5) titled "Voltage Triggering".

    Read it there → · on Figure (4-5)

Voltage Intensifier Coil-Assembly 2×

  1. Voltage Triggering Process (70)

    Activation Process (590) of Figure (6-2) as to (100) of Figure (4-8) is achieved since amp flow is restricted to enter into Voltage Triggering Process (70) of Figure (4-5) by way of voltage intensifier coil-assembly (580) of Figure (6-1).

    Read it there → · on Figure (4-5)

  2. Voltage Triggering Process (70)

    Voltage Triggering Process (70) of Figure (4-5)

    Read it there → · on Figure (4-5)

Capacitance Reactance 1×

  1. which, when occurring at gas exit port (32) of Figure (4-5), spark-ignites expanding water gas-fuel (45/46/47) of Figure (4-5) during water inject cycle (70) of Figure (4-5)

    Read it there → · on Figure (4-5)

Electron Bounce Phenomenon 4×

  1. ... triggering Hydrogen Fracturing Process (90) of Figure (5-5) as to (100) of Figure (4-8) ... instantly releasing thermal explosive energy (gtnt) (16) from Water (85) on demand, as illustrated in Taper Resonant Cavity (590) of Figure (6-2) as to (70) of Figure (4-5).

    Read it there → · on Figure (4-5)

  2. (70) of Figure (4-5)

    Read it there → · on Figure (4-5)

  3. ... therefore, producing a physical force-yield (Fy) during gas-ignition (70) of Figure (4-5) which is directly related to the liquid volume of water (85) per injection cycle and applied Resonant Voltage Intensity (Yo -Vn), as illustrated in (590) of Figure (6-2) as to (90) of Figure (5-5).

    Read it there → · on Figure (4-5)

  4. physical force-yield (Fy) during gas-ignition (70) of Figure (4-5)

    Read it there → · on Figure (4-5)

Voltage to Amp Differential Ratio 2×

  1. The greater the Electrical Stress (RU-RU' a xxx ST -ST'n) applied (64B+/64B-a xxx 64B+/64B-), the greater amount of thermal explosive energy (16/gtnta xxx 16/gtntn) of Figure (6-2) as to (70) of Figure (4-5) is released from Resonant Water Gap (Cp) (970) of Figure (10-1), as further illustrated in (70) of Figure (4-5).

    Read it there → · on Figure (4-5)

  2. The greater the Electrical Stress (RU-RU' a xxx ST -ST'n) applied (64B+/64B-a xxx 64B+/64B-), the greater amount of thermal explosive energy (16/gtnta xxx 16/gtntn) of Figure (6-2) as to (70) of Figure (4-5) is released from Resonant Water Gap (Cp) (970) of Figure (10-1), as further illustrated in (70) of Figure (4-5).

    Read it there → · on Figure (4-5)