established WFC
Voltage pulse frequency (e) varied from 1 Hz to 1 MHz+ to increase gas yield
Voltage pulse frequency (e) is varied from 1 Hz to 1 MHz and beyond, further increasing gas-yield.
Bench
Engineering notebook
1,315 published findings from the ongoing work — what has been established, calculated and observed at the bench, each traceable to the session that produced it.
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established WFC
Voltage amplitude (d) stepped up to range under 1V to 5,000V+ applied to cavity
Voltage amplitude (d) is varied to increase gas-yield; after step-up, the applied voltage range to the resonant cavity (44) is from less than one volt to 5,000 volts or more.
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established VIC
Duty-cycle pulse rate varied from 1 to 100 duty-pulses per second to restrict amp flow
Once the gated pulse-train (51) is set to maximize gas production, the gated duty-cycle pulse (52) is varied from one duty-pulse per second (52a) to one hundred duty-pulses per second (52n) to help re...
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established WFC
Gated pulse on/off time adjustable 1% to 100% duty time
Gated pulse (H) relative to gated pulse (J) is proportionally changed to concentrate or expand applied voltages to the resonant cavity (44); the gated pulse train's on-time (53) versus off-time (54) i...
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established VIC
Duty-pulse train adjustable from 1 to 100 duty-pulses via gate circuit
Waveforms (d)(e) and (f)(g) combine into a pulse-duty (52) that is varied from one duty-pulse to one hundred duty-pulses (forming pulse-train 51) via gate circuit (32), representing the tenth and elev...
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established VIC
Variable gate circuit alternately triggers two opto-couplers to form dual waveforms
Variable gate circuit (32) is a two-state switch linked to opto-coupler (36) and opto-coupler (39). When near ground/low state, opto-coupler (36) triggers to form pulse waveform (d)-(e); when gate cir...
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established VIC
Dual-pulsing circuit integrates with VIC to drive resonant cavity
A dual-pulsing circuit (components 33, 34, 38, 39, 40) is integrated with the Voltage Intensifier Circuit (Figure 9) as shown in Figure 20C, to enhance hydrogen gas production beyond simple voltage at...
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established EPG
Resultant magnetic field transverses pickup-coils to produce electrical energy
In either Quiescent or Active-State, the resultant magnetic field transverses pickup-coils to produce electrical energy.
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established EPG
Active-State: pulsed laser energy passes through gas-lattice producing magnetic pulse-wave
In Active-State, the laser energy is pulsed and passes through the Gas-Lattice to produce a magnetic pulse-wave, as illustrated in Figure 29 as to Figure 26A and 26B.
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established EPG
Quiescent-State: laser energy superimposed and stored in close-loop tubular EPG to maintain magnetic field
In Quiescent-State, the laser energy is superimposed onto the Gas-Lattice and 'stored' inside the close-loop tubular EPG system to maintain a given or predetermined magnetic field strength during EPG...
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established EPG
Nickel and cobalt ions duplicate iron ions' magnetic properties under laser priming
Nickel ions and cobalt ions are interchangeable with and duplicate the magnetic properties of Iron ions undergoing Laser priming.
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established EPG
Magnetic field strength of gas-lattice increases linearly with laser intensity
Increasing Laser intensity increases the magnetic field strength of the gas-lattice in a linear function.
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established EPG
Spinning electrons interact with electrostatic and electromagnetic forces to enhance magnetic field
The spinning electrons simply interact with both electrostatic forces and electromagnetic forces to produce an enhanced magnetic field, an extension of 'The Electron Theory Of Magnetism'.
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established EPG
Absorbed laser energy accelerates iron ion electron spin, amplifying domain magnetic field
The absorbed Laser energy forces the Iron ions' electrons to spin at a faster rate when taken to a higher energy level, which in turn amplifies and strengthens the magnetic field (Domain magnetic fiel...
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established EPG
Magnetic Field Enhancement occurs via Laser interaction with Magnetized Gas-Lattice inside EPG
Magnetic Field Enhancement occurs when the Magnetized Gas-Lattice, placed inside the EPG close-loop tubular system, is exposed to and interacts with Laser energy, as illustrated in Figure 29 WFC Tech-...
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established EPG
Magnetic Field Strength is measured in Gauss units, determined by linear volume of Gas-Lattice
Magnetic Field Strength is 'measured' in GAUSS UNITS and is determined by the linear volume of the Gas-Lattice.
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established EPG
Grouped Magnetic Flux-Lines form a stable magnetic field via inter-domain coupling
Grouping the Magnetic Flux-Lines together forms a 'stable' magnetic field since the magnetic coupling-field between the Iron ions or Domains helps hold the Iron ions in linear alignment beyond the bon...
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established EPG
Argon atom electrons pair-off with opposite spins, preventing formation of a second magnetic field
The Argon atom electrons tend to pair-off in orbits with opposite spins, which prevents the formation of a second magnetic field.
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established EPG
Magnetic Flux-Line follows alignment of Iron ions while Argon ions insulate against flux flow
The Magnetic Flux Line follows the alignment of the Iron ions (Fe+ xxx Fe+), since Argon ions (Ar+ xxx Ar+) act as an insulator to the flow of magnetic Flux-Lines.
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established EPG
Iron ion electron spin forms Domains that unite into a Magnetic Flux-Line
Since the electrons of the Iron ion (Fe+) spin in one direction only (Nickel and Cobalt ions likewise), the magnetic field of each Iron ion, called Domains, unite to form a discrete magnetic field cal...
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established EPG
Gas-Lattice becomes magnetized when exposed to a magnetic field
The newly 'structured' Gas-Lattice becomes magnetized when momentarily exposed to a magnetic field, as illustrated in Figure 1-9.
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established EPG
Gas-Lattice formation of unlike atoms via Electron Extraction is termed 'The Gas Bonding Process'
Gas-Lattice formation of unlike atoms by way of the Electron Extraction Process is, hereinafter, called 'The Gas Bonding Process'.
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established EPG
Iron ions in the gas-lattice can be substituted with Nickel or Cobalt ions
During Gas-Lattice formation, Iron ions (Fe+) can be replaced by other atoms exhibiting magnetic properties such as Nickel ions (Ni+) or Cobalt ions (Co+).
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established EPG
Like atoms do not covalently bond due to weaker electrical attraction force between them
Covalent bonding between like atoms does not occur due to the 'stronger' Electrical Attraction-Force (qq') between unlike atoms, which favors bonding between Argon and magnetic metal ions instead.
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established EPG
Stable gas-lattice state occurs when Argon reaches 8 covalent electrons and Iron reaches 14 (M shell)
Stable-state of the Gas-Lattice occurs when the covalent shell of each unlike atom structure becomes full: the Argon atom (Ar) has a covalent shell of 8 electrons while the Iron atom (Fe) has a covale...
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established EPG
Continued Fe+ bonding to Ar+ forms a geometrical Gas-Lattice Structure (Fig 1-8)
Covalent bonding of Iron ions (Fe+) to the Argon ion (Ar+) continues until a geometrical Gas-Lattice Structure is formed, as illustrated in Figure 1-8.
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established EPG
Argon and Iron ions form covalent gas-lattice bond via Electron Extraction Process
The forming Argon ion (Ar+) is exposed to Iron ions (Fe+), which have magnetic properties, and both undergo the Electron Extraction Process. The two ions (Ar+/Fe+) form a covalent bond when the covale...
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established
Electron Extraction Process (BB) is also called the Gas Resonant Cavity
The Electron Extraction Process, labeled (BB) and shown in Figure 1-7 (corresponding to Figure 20JX), is hereinafter referred to as 'The GAS RESONANT CAVITY.'
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established EPG
Laser-primed gas ions repel electrons being consumed
Laser activated or laser primed gas ions repel the dislodged electrons being consumed, as illustrated in Figure 1-5.
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established GASPROC
Amp Consuming Device destroys dislodged electrons as heat during alternate pulsing
The dislodged negative charged electrons are destroyed or consumed in the form of heat when the Amp Consuming Device (S), such as a light bulb, is positively electrically energized during alternate pu...