Skip to content
Stan’s Legacy
Sign in

Figure (7-12)

Resonant Cavity Electrical Voltage Wave

How it is written

  • (7-12) 22×

Drawings 9

On this figure 10

Where it is named · 22

Water Fuel Injector 1×

  1. At each progressive point of diminishing circumference surface-area (E9a - b - c - d - E9n) voltage amplitude intensity increases (Vna - b - c - d - Vnn) uniformly, as illustrated in (600) of Figure (6-3) as to Travelling Voltage Wave-forms (730a - b - c) of Figure (7-12), see WFC Memo (426).

    Read it there →

Taper Resonant Capacitor (ERt) 2×

  1. ... each resonant cavity design acting and functioning as a Voltage Wave-guide (570) and gap-size (35) sufficient enough to allow the "Quenching Effect" to take place, as illustrated in (730) of Figure (7-12) as to (370) of Figure (3-40).

    Read it there →

  2. (730) of Figure (7-12)

    Read it there →

Capacitance Reactance 2×

  1. Capacitor (ER) should remain relatively small due to the dielectric value of water to obtain maximum Thermal Explosive Energy-Yield (16a xxx 16n) of Figure (4-5) and subsequently establishing Quenching Circuit (370) of Figure (3-40) to prevent gas ignition inside traveling voltage wave-guide (590) of Figure (6-2) as to (730) of Figure (7-12)

    Read it there →

  2. (730) of Figure (7-12)

    Read it there →

Electron Bounce Phenomenon 2×

  1. Of course, in practical terms of component interaction, a minute amount of amp leakage is present and does occur due to Electronic Component Limitations but is negligible as to the overall performance of the Hydrogen Fracturing Process (590) of Figure (6-2) when being subjected to either one of Traveling Electrical Voltage Wave-forms (730 a-b-c) of Figure (7-12), see Voltage Graph (750) of Figure (7-14) once again.

    Read it there →

  2. Traveling Electrical Voltage Wave-forms (730a - b - c) of Figure (7-12)

    Read it there →

Voltage Amplitude Switch-Off 2×

  1. Voltage levels of variance (Va xxx Vn) is achieved by simply switching-in or switching-out the member of Secondary Coil-cavities (505a xx 505n) (see 740 of Figure 7-13) in direct relationship to Taper Resonant Voltage surfaces (E9/10) of Figure (6-2) which acts and performs as a "Voltage Amplifier" when Compressional Wave-form (B) of Figure (7-12) is intensified at Exit Port (32) of Figure (6-2).

    Read it there →

  2. Compressional Wave-form (B) of Figure (7-12)

    Read it there →

Mode of Operability 1×

  1. ... increasing Thermal Explosive Energy-yield (gtnt) to higher energy-levels (gtnta xxx gtntn) beyond applied excitation voltage (Vn) by simply altering Voltage Surfaces (35b/35c) as in reference to Linear Voltage Surfaces (35a), as illustrated in (730) of Figure (7-12).

    Read it there →

8-2 - Traveling Voltage Wave-Guides 5×

  1. The formation of tubular Traveling Voltage Wave-guide (570a) of Figure (7-12) (WFC Memo 426) as to (770) of Figure (8-1) is physically formed when positive electrical voltage surface (66/E9) and negative electrical voltage surface (67/E10) are placed in parallel space relation …

    Read it there →

  2. … parallel space relationship to form voltage surfaces (E9/E10) about an cylindrical axis of rotation having space-gap (35) there between and thus, fanning Cylindrical Resonant Cavity (730A) of Figure (7-12) as to (770A) of Figure (8-1) when space-gap (616) of Figure (720) exposes injected water bath (85) to unipolar pulse-oscillation of high voltage intensity of opposite polarity (67/66) as to (780) of …

    Read it there →

  3. (730A) of Figure (7-12)

    Read it there →

  4. ... forming tubular voltage wave-guide (s) (570) of Figure (7-12) that, now, becomes the same physical configuration of Water Gap (616), as illustrated in (720) of Figure (7-11).

    Read it there →

  5. (570) of Figure (7-12)

    Read it there →

8-5 - Energy Vectoring (Ev) 2×

  1. The "mode of operability" of determining the "Operational Parameters" of adjusting the thermal explosive energy (gtnt) exiting from nozzle-port (32) of Figure (4-5) as to (40) of Figure (4-2) is directly related to the characteristics of the applied Voltage Pulse Potential (Vpp) Wave-form (s) (Vpwt) and the geometrical configuration of Resonant Cavity (90) of Figure (4-7) as to (730) of Figure (7-12).

    Read it there →

  2. (730) of Figure (7-12)

    Read it there →

8-7 - Application of Usage 4×

  1. whereas, Expanding Resonant Cavity (730C) of Figure (7-12) as to (820C) of Figure (8-6) is best suited for Furnace Applications. Linear Resonant Cavity (730A) of Figure (7-12) as to Figure (820A) is for Cutting-Torch applications (582) ... to mention a few.

    Read it there →

  2. whereas, Expanding Resonant Cavity (730C) of Figure (7-12) as to (820C) of Figure (8-6) is best suited for Furnace Applications. Linear Resonant Cavity (730A) of Figure (7-12) as to Figure (820A) is for Cutting-Torch applications (582) ... to mention a few.

    Read it there →

  3. (730C) of Figure (7-12)

    Read it there →

  4. (730A) of Figure (7-12)

    Read it there →

VIC Switchover Circuit 1×

  1. In like manner as to linear cylindrical resonant cavity (730) of Figure (7-12), the Differential Voltage Wave-Guide (1040) of (1010) of Figure (11-1) as to Figure (11-6) is constructed in such a way as to allow a smaller tube to be placed inside a much larger tube having space relationship to allow water to pass there between, as so pictorially shown in (170) of Figure (3-25).

    Read it there →