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.
Bench
Engineering notebook
53 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 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 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 EPG
Laser intensity regulation ionizes Argon gas atoms
By varying or regulating laser intensity in direct relationship to applied pulse-voltage frequency and voltage amplitude, the inert gas atom of Argon (Ar) is caused to become a positive charged gas io...
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established EPG
Laser intensity varies with pulse duty cycle from 1 Hz to 65 Hz and above
Laser or light intensity is variable as to duty cycle on/off pulse-frequency from 1 Hz to 65 Hz and above, determined by Le (light intensity in watts), T1 (current on-time), T2 (current off-time), and...
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established EPG
Pulse-voltage amplitude and frequency regulate Electron Extraction Process
Attenuating and adjusting the pulse-voltage-amplitude relative to the pulse-voltage-frequency regulates the Electron Extraction Process governing how electrons are pulled from the gas atom.
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established EPG
Electron removal destabilizes the gas atom
Once negatively charged electrons are dislodged from the gas atom, the atom becomes destabilized, having missing electrons; this dislodging of electrons via voltage stimulation is termed the Gas Desta...
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established EPG
Stationary negative voltage field E4 attracts the ion nucleus
A stationary negative electrical voltage field (E4) simultaneously attracts the positively charged nucleus of the gas atom.
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established EPG
Stationary positive voltage field E3 attracts electrons
A stationary positive electrical voltage-field (E3) attracts the negatively charged electrons away from the gas atom.
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established EPG
Argon is the working gas atom in this ionization process
The gas atom acted upon in the destabilization process is Argon (Ar), which is pulled apart into ion and dislodged electrons via the applied pulse-voltage field.
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established EPG
Pulse-voltage across Excitor-Array ionizes argon gas atom
Placing a pulse-voltage potential across the Excitor-Array of the Gas Resonant Cavity, while inhibiting electron flow within the Voltage Intensifier Circuit, causes the argon gas atom to become a posi...
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established EPG confidence 0.80
RE is the dielectric constant of Argon, associated with the Electrical Particle Generator
In the VIC resistance relationship, RE is defined as the dielectric constant of Argon (Ar), the dielectric gas used in the Electrical Particle Generator, not the Water Fuel Cell.
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established EPG
Argon gas acts as resistance limiting electron flow in the pulsing circuit
The Argon (Ar) gas molecule/atom becomes part of the Voltage Intensifier Circuit as a form of resistance between electrical ground and pulse-frequency positive-potential, helping prevent electron flow...
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established EPG
Argon gas dielectric constant forms the Gas Resonant Cavity capacitor
The dielectric properties of Argon Gas (dielectric constant 1.000545 @ 23°C) between electrical plates (E3/E4) form the capacitor (ER) of the Gas Resonant Cavity (t).
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established EPG
Magnetic Pulse-Wave traverses pickup windings to generate electricity
The Magnetic Pulse-Wave produced from the pulsed laser stimulation of the Gas-Lattice traverses pickup windings to generate electricity.
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established EPG
Newly formed Gas-Lattice is exposed to pulsed Laser Energy to generate a Magnetic Pulse-Wave
The newly structured and formed Gas-Lattice is exposed to Laser Energy, which is pulsed to produce a Magnetic Pulse-Wave.
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established EPG
Magnetized Gas is manufactured via a voltage-stimulated Gas Bonding Process forming a stable Gas-Lattice
Manufacturing the Magnetized Gas requires taking inert gas atoms and forming a 'Stable' Gas-Lattice by way of voltage stimulation, called 'The Gas Bonding Process.'
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established EPG
Electrical Particle Generator produces electrical energy from a Magnetized Gas
The Electrical Particle Generator capitalizes on and uses a Magnetized Gas to produce Electrical Energy.