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(16) · also written as a run, 16a xxx 16n

Flame Projection

Also written energy-flame · variable controlled pulse-shape · Thermal Explosive Energy-Yield · time-base unipolar pulse · thermal gas expansion · Resonant Pulse Waves · electrostatic force · repetitive manner and 3 more

Where it is first named

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).
— Acceleration Control Circuit (30)

How it is written

  • (16) 24×
  • (16a xxx 16n) 7×
  • (14/16) 2× with (14) Response-Time
  • (100 xxx 16n) 1×
  • (16a xxx) 1×
  • (16a xxx 16L = 16n) 1×

16a xxx 16n is Meyer's shorthand for a run of the same thing: 16a is the first, 16n the last, and the x's stand for however many lie between. Every stage of the run is this one numeral.

Drawings 100

Where it is named · 36

Acceleration Control Circuit (30) 4×

  1. time-base unipolar pulse (16)

    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)

  2. pulse shape (16)

    Toggling-time (scanning-time) is directly synchronized to light gate (9) displacement which, in turns, circuit (30) further sets up and establishes a given pulse shape (16) of Figure (3-8).

    Read it there → · on Figure (3-8)

  3. variable controlled pulse-shape (16)

    Finally, circuit (30) reproduces the variable controlled pulse-shape (16) in a continuous repetitive manner (16a xxx 16n) of Figure (3-13) and electrically transmits the resultant pulse-train signal (19) to Analog Voltage Circuit (40), as shown in Figure (3-5).

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

  4. repetitive manner (16a xxx 16n)

    Finally, circuit (30) reproduces the variable controlled pulse-shape (16) in a continuous repetitive manner (16a xxx 16n) of Figure (3-13) and electrically transmits the resultant pulse-train signal (19) to Analog Voltage Circuit (40), as shown in Figure (3-5).

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

Analog Voltage generator (40) 1×

  1. pulse train (100 xxx 16n)

    The newly formed analog signal (22) of Figure (3-14) is a voltage level signal that varies continuously in both time and amplitude to produce a voltage level which is directly proportional to the physical change in pulse train (100 xxx 16n) of Figure (3-13).

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

Water Fuel Injection System 7×

  1. Operationally, Water Fuel injector assembly (10) of Figure (1) as to (40) of Figure (2B) performs several functions simultaneously to produce thermal explosive energy-yield (gtnt) (16) on demand:

    Read it there →

  2. … gen Fracturing Process (390) of Figure (41) as to Figure (6) under control state (on demand) via electrical-static spark ignition (49 / 51) of Figure (3B)....releasing thermal explosive energy (gtnt) (16) passing beyond gas exit port (32) of Figure (3B), as further illustrated in Figure (2) as to Figure (1).

    Read it there →

  3. Voltage Igniter Stage (180) of Figure (3B) as to Voltage Intensifier Circuit (110) Figure (7) as to Extraction Circuit (120) of Figure (8) performs several functions simultaneously to initiate and trigger thermal explosive energy-yield (gtnt) (16) beyond normal gas burning levels:

    Read it there →

  4. … 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 →

  5. Additional WFC Injector Assemblies (20) of Figure (2) are arranged in cluster array (20a xxx 20n) to increase energy-yield output (16a xxx 16n) of Figure (10 / 1 / 12).

    Read it there →

  6. … systems (Figure 10), rockets engines (Figure 12), or even car spark plugs (130) of Figure (9) which simply uses Water Fuel management (WFMS) system fluid-metering system (40) to control gas ignition (16), as illustrated in (40) of Figure (2B).

    Read it there → · on Figure (12)

  7. energy-flame (16)

    Sequential pulsing of Water Fuel Injector (20/30) of Figure (1) as to (40) of Figure (2B) is system activated by Pulse Gate Valve (190) of Figure (1) to further control a predetermined energy-flame (16).

    Read it there →

Water Fuel Injector (Taper Resonant Cavity Chamber) 5×

  1. flame projection (16)

    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 operati …

    Read it there →

  2. flame projection (16)

    flame projection (16) of Figure (3B)

    Read it there →

  3. while, during the same interim period of time, negative charged gas particles (82a xxx 82n) being directed onward to and affix themselves to positive charged hydrogen atoms (77a / 77b), as illustrated in (200) of Figure (16).

    Read it there →

  4. Once water fuel-droplets (xxx 48n) fully occupies open space cavity (Resonant Cavity Zone) (35) and then exposed to applied pulsating opposite electrical voltage fields (49/51) of voltage wave form (280) of Figure (17), the electrically stimulated water fuel droplets (48a xxx 48n) are subjected to release thermal explosive energy (gtnt) (16) undergoing Electrical-Resonant in a sequential manner:

    Read it there →

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

    Read it there →

Funneling Effect 4×

  1. thermal gas expansion (16)

    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 →

  2. To increase energy levels (16a xxx 16L = 16n) of Hydrogen Fracturing Process (100) as to (390), even further, simply switch-on additional Booster Coils (61a x 61L - 61n) in sequential order to increase voltage intensity (VL ~ Vn ~ Vm) to higher …

    Read it there →

  3. The established "Power Boost" energy level (16a xxx 16n) is changeable, however, by, simply, electrically moving or displacing (back and forth movement) Core-Slug (73) to another stop-location (72)... adjusting energy-level (16a xxx) on demand.

    Read it there →

  4. The established "Power Boost" energy level (16a xxx 16n) is changeable, however, by, simply, electrically moving or displacing (back and forth movement) Core-Slug (73) to another stop-location (72)... adjusting energy-level (16a xxx) on demand.

    Read it there →

Water Fuel Injection System - Page 1 2×

  1. Operationally, Water Fuel injector assembly (10) of Figure (4-1) as to (40) of Figure (4-2) performs several function simultaneously to produce thermal explosive energy-yield (gtnt) (16) on demand:

    Read it there → · on Figure (4-2)

  2. .... releasing thermal explosive energy (gtnt) (16) passing beyond gas exit port (32) of Figure (4-5), as further illustrated in Figure (4-2) as to Figure (4-1).

    Read it there → · on Figure (4-5)

Water Fuel Injection System - Page 2 1×

  1. Voltage Igniter Stage (180) of Figure (4-5) as to Voltage Intensifier Circuit (110) Figure (4-9) as to Extraction Circuit (10) of Figure (4-10) performs several functions simultaneously to initiate and trigger thermal explosive energy-yield (gtnt) (16) beyond normal gas burning levels:

    Read it there → · on Figure (4-10)

Water Fuel Injection System - Page 3 2×

  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)

  2. Additional WFC Injector Assemblies (20) of Figure (4-1) are arranged in cluster array (20a xxx 2On) to increase energy-yield output (16a xxx 16n) of Figure (4-12/4-13/4-14).

    Read it there → · on Figure (4-1)

Water Fuel Injection System - Page 4 2×

  1. gas ignition (16)

    which simply uses Water Fuel Management (WFMS) System fluid-metering system (40) to control gas ignition (16), as illustrated in (40) of Figure (4-2).

    Read it there → · on Figure (4-2)

  2. energy-flame (16)

    Sequential pulsing of Water Fuel Injector (20/30) of Figure (4-1) as to (40) of Figure (4-2) is system activated by Pulse Gate Valve (190) of Figure (4-1) to further control a predetermined energy-flame (16).

    Read it there → · on Figure (4-1)

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)

Resistance (Rs) 2×

  1. ... releasing thermal explosive energy (gtnt) (16) of Figure (4-5) on demand from natural water (85) of Figure (3-26) since the dielectric value (Re) of (Eq.9) of Water Fuel (85) is further approximated in Capacitance Equation (Eq.22), as illustrated in (650) of Figure (7-4) as to Tapered Voltage Wave-Guide (720) of Figure (7-11)

    Read it there → · on Figure (4-5)

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

    Read it there → · on Figure (4-5)

In-Line Circuit Components 1×

  1. Thermal Explosive Energy-Yield (gtnt) (16a xxx 16n) instantly produced from water (85) is determined by:

    Read it there →

Capacitance Reactance 2×

  1. Thermal Explosive Energy-Yield (16a xxx 16n)

    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 → · on Figure (4-5)

  2. ... releasing thermal explosive energy (gtnt) (16) under control state.

    Read it there →

Electron Bounce Phenomenon 1×

  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 (6-2)

8-7 - Application of Usage 1×

  1. Resonant Pulse Waves (16)

    In each and all Flame-Front (582 A,B,C) Resonant Pulse Waves are produced to net higher energy-yield beyond normal gas burning levels. Laser Energy (588) being injected into Resonant Pulse Waves (16) by way of Laser Inject Tube-Port (589) helps maintain Plasma-temperatures at extremely elevated temperatures over the prior art.

    Read it there →