Skip to content
Stan’s Legacy
Sign in

(14) · also written as a run, 14a xxx 14n

Response-Time

Also written electrical time-response · Safety Control Circuit · variable time-response · time-response signal · electrostatic force · time variable · toggling-time · nucleus

Where it is first named

Moving light-gate (9) of figure (3-9) in direct relationship to the physical placement of optical circuits (8a xxx 8n), sets up a time variable (14a xxx 14n) of Figure (3-7) from optical circuits (8x) to another optical circuit (8xx) and/ or (8xxx) or to (8n) since the triggered low logic state (12) of Figure (3-7) and (3-8) moves in direct relationship t …
— Acceleration Control Circuit (30)

How it is written

  • (14) 17×
  • (14/16) 2× with (16) Flame Projection
  • (14a xxx ... 12 ... xx14n) 2×
  • (14a xxx 14n) 2×
  • (14a xxx) 1×
  • (14n) 1×
  • (14a xxxx ... 12) 1×
  • (14a xxx ... 12) 1×

14a xxx 14n is Meyer's shorthand for a run of the same thing: 14a is the first, 14n the last, and the x's stand for however many lie between. Every stage of the run is this one numeral.

Drawings 85

Where it is named · 27

Acceleration Control Circuit (30) 8×

  1. time variable (14a xxx 14n)

    Moving light-gate (9) of figure (3-9) in direct relationship to the physical placement of optical circuits (8a xxx 8n), sets up a time variable (14a xxx 14n) of Figure (3-7) from optical circuits (8x) to another optical circuit (8xx) and/ or (8xxx) or to (8n) since the triggered low logic state (12) of Figure (3-7) and (3-8) moves in direct relationship t …

    Read it there → · on Figure (3-7)

  2. response-time (14n)

    Deflecting (moving) the light-gate (9) to position (8n) takes longer in response-time (14n) than deflecting the light-gate to position (8x) and/or (8xx) or (8xxxx).

    Read it there →

  3. electrical time-response (14a xxx 14n)

    … xxI4n) or signal output (15) of Figure (3-5) is, now, electrically transmitted to Acceleration Control Circuit (30) of Figure (3-5) since Laser Accelerator Assembly (20) of figure (3-10) converts mechanical displacement (9a xxx 9n) to electrical time-response (14a xxx 14n) of Figure (3-7) by linearly moving (forward and/or reverse direction) "low" logic state signal (12) in a array of "high" logic state output signals (13a xxx 13n), as further illustrated in Figure (3- …

    Read it there → · on Figure (3-7)

  4. As signal output (15) of figure (4) (14a xxx ... 12 ... xx14n) is being received by acceleration control circuit (30) of Figure (3-5) as to Figure (3-12), circuit (30) converts incoming time-response signal (14a xxx ... 12 ... xx14n) into a variable time-base unipolar pulse (16), as shown in Figure (3-8).

    Read it there → · on Figure (3-5)

  5. time-response signal (14a xxx ... 12 ... xx14n)

    As signal output (15) of figure (4) (14a xxx ... 12 ... xx14n) is being received by acceleration control circuit (30) of Figure (3-5) as to Figure (3-12), circuit (30) converts incoming time-response signal (14a xxx ... 12 ... xx14n) into a variable time-base unipolar pulse (16), as shown in Figure (3-8).

    Read it there → · on Figure (3-8)

  6. response-time (14a xxx ... 12)

    Circuit (30) electronically and automatically scans output signal-array (14axxx ... 12 ... xx14n) (15) until circuit (30) locates, momentarily registers, and translates response-time (14a xxx ... 12) into a variable unipolar pulse (17/18) of Figure (3-8).

    Read it there → · on Figure (3-8)

  7. variable time-response (14a xxx)

    This toggling (flip back) action electronically determines variable time-response (14a xxx) regardless of wherever logic point (12) is being momentarily displaced within circuit array (13a xxx 13n).

    Read it there →

  8. toggling-time (14a xxxx ... 12)

    Circuit (30) continues to increase pulse width (17axxxx) of Figure (3-8) as the monitored (detected by < scanning) toggling-time (14a xxxx ... 12) increases when logic-point (12) moves farther away from start-position (9a) to stop-position (9n), as further shown in Figure (3-13) as to Figure (3-12).

    Read it there → · on Figure (3-13)

Voltage Amplitude Control Circuit (50) 1×

  1. Safety Control Circuit (14)

    … s pressure release valve (75) of Figure (3-24) (gas venting 37 of Figure 3-15) expels Fuel gases (88) until gas point (34) is either reached or a delay timing circuit activates Safety Control Circuit (14) of Figure (3-6) which, in turns, switches off or disconnects applied electrical power (28) to Fuel Cell electrical system (400) of Figure (3-6).

    Read it there → · on Figure (3-6)

Water Fuel Injection System 1×

  1. … 420) to cause the resultant highly energized and mass destabilized combustible gas atoms (93a xxx 93n) of Figure (8) to perform Hydrogen Fracturing Process (80) of Figure (7) when electrostatic force (14/16) thermally ignites (kinetic agitation) destabilized water-fuel mixture (93a xxx 93n) under gas compression... …

    Read it there →

Water Fuel Injector (Taper Resonant Cavity Chamber) 11×

  1. releasing thermal explosive energy (gtnt) via flame projection (16) of Figure (3B) as to Figure (14), Water Fuel Injection System (10) of Figure (1) as to (170) of Figure (13) incorporates and uses Taper Resonant Cavity Chamber (180) of Figure (14) to enhance operational parameters of Hydrogen Fract …

    Read it there →

  2. … a flame projection (16) of Figure (3B) as to Figure (14), Water Fuel Injection System (10) of Figure (1) as to (170) of Figure (13) incorporates and uses Taper Resonant Cavity Chamber (180) of Figure (14) to enhance operational parameters of Hydrogen Fracturing Process (100) of Figure (6) being stimulated to activation by opposite electrical voltage fields (49/51) of Figure (3B) as to (180) of Figure …

    Read it there →

  3. … to enhance operational parameters of Hydrogen Fracturing Process (100) of Figure (6) being stimulated to activation by opposite electrical voltage fields (49/51) of Figure (3B) as to (180) of Figure (14).

    Read it there →

  4. 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 →

  5. Figure (14)

    Read it there →

  6. … n-flow of water fuel droplets (48a xxx 48n) not only sustains and maintains Hydrogen Fracturing Process (100) of Figure (6) but, also, regulates Thermal Explosive Energy release (16a x 16n) of Figure (14) by attenuating applied voltage amplitude (xxx VL xxx), as graphically shown in Figure (20F) (WFC Memo 420).

    Read it there →

  7. Thermal Explosive Energy release (16a xxx 16n) of Figure (14)

    Read it there →

  8. which, in turns, ejects a greater number of electrons while preventing the formation of the water molecule (390) of Figure (41) (WFC Memo 422 DA) during thermal gas-ignition (180) of Figure (14).

    Read it there →

  9. (180) of Figure (14)

    Read it there →

  10. This induced voltage phenomenon encourages and therefore prevents resonant pulse frequency (58) from being impaired or altered while being electrically transmitted to Resonant Cavity (180) of Figure (14) via electrical tabs (71) and (72) of Figure (14).

    Read it there →

  11. This induced voltage phenomenon encourages and therefore prevents resonant pulse frequency (58) from being impaired or altered while being electrically transmitted to Resonant Cavity (180) of Figure (14) via electrical tabs (71) and (72) of Figure (14).

    Read it there →

Funneling Effect 4×

  1. causing Resonant Cavity Zone (35) to function and perform as a voltage wave-guide (86) of Figure (14) since the gradual decrease in cross-sectional circumference area (85) of Figure (14) is in linear progression ... reducing both voltage surfaces areas (83/84) in parallel space relationship from larger segmental area (85a) to smaller segmental area (85n).

    Read it there →

  2. causing Resonant Cavity Zone (35) to function and perform as a voltage wave-guide (86) of Figure (14) since the gradual decrease in cross-sectional circumference area (85) of Figure (14) is in linear progression ... reducing both voltage surfaces areas (83/84) in parallel space relationship from larger segmental area (85a) to smaller segmental area (85n).

    Read it there →

  3. At termination point (85), voltage intensity (VL x Va x Vb x Vc x Vn) is, now, increased to the point to cause Gas Ignition as Combustible Gas Atoms (76, 77a - 77b) which are, then, expelled from Gas Nozzle Port (87) of Figure (14) under dynamic pressure to allow thermal gas expansion (16) ... releasing thermal explosive energy (gtnt) beyond and away from Resonant Cavity Chamber (180), as illustrated in Figure (14).

    Read it there →

  4. At termination point (85), voltage intensity (VL x Va x Vb x Vc x Vn) is, now, increased to the point to cause Gas Ignition as Combustible Gas Atoms (76, 77a - 77b) which are, then, expelled from Gas Nozzle Port (87) of Figure (14) under dynamic pressure to allow thermal gas expansion (16) ... releasing thermal explosive energy (gtnt) beyond and away from Resonant Cavity Chamber (180), as illustrated in Figure (14).

    Read it there →

Water Fuel Injection System - Page 3 1×

  1. electrostatic force (14/16)

    … to cause the resultant highly energized and mass destabilized combustible gas atoms (93a xxx 93n) of Figure (4-10) to perform Hydrogen Fracturing Process (80) of Figure (4-9) when electrostatic force (14/16) thermally ignites (kinetic agitation) destabilized water-fuel mixture (93a xxx 93n) under gas compression

    Read it there → · on Figure (4-9)

Energy Pumping Action 1×

  1. nucleus (14)

    In this phase of application, opposite attraction force (BB') provides a energy transfer path (12) to each respective proton (3a xxx 3n) from energy aperture (11) which is centrally formed during proton grouping ... establishing nucleus (14) of Figure (5-2).

    Read it there → · on Figure (5-2)