established STEAM
Increasing DC power supply (30) voltage amplitude increases steam yield
To increase steam-yield further, simply increase the voltage amplitude of the D.C. power supply (30) shown in Figure 32QX.
Bench
Engineering notebook
15 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 STEAM
Water molecule deflects toward energized Excitor Plate due to opposite-charge attraction
Applying positive voltage potential (62) across Excitor Plate (61) deflects the water molecule (72) toward that voltage zone due to attraction between the negative-charged oxygen atom and the positive...
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established STEAM
Alternating unipolar pulses between Excitor Plates increases steam production rate
Dual pulsing circuit (50) alternates a unipolar positive voltage pulse sequentially between Excitor Plate (61) and Excitor Plate (69) to produce superheated steam via voltage deflection; increasing th...
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established STEAM
Two VIC circuits (60) and (70) drive opposing Excitor Plates forming the Steam Resonant Cavity
Voltage Intensifier Circuit (70) is an exact duplicate of circuit (60), applying duty pulse (48) to a second Excitor Plate (69) on the opposite side of the same water molecule; together circuits (60)...
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established STEAM
Duty pulse across primary coil (54) induces field coupled to pickup coil (56)
As duty pulse (53) forms across primary coil (54), electromagnetic field (55) is produced and couples with pickup coil (56), forming voltage potential (57) across the pickup coil.
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established STEAM
Gate circuit regulates duty pulse up to 1 MHz or more
Gate circuit (32) varies or regulates the alternating duty pulse (53/48) applied to the Voltage Intensifier Switching Circuit (AA) up to one megahertz or more.
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established STEAM
Sequential gate circuit alternates Q5/Q6 via optocouplers 51/52
Variable gate circuit (32) is a two-state switch linked to optocouplers (51) and (52). As gate signal (H) nears low state, optocoupler (52) triggers power switch (Q5) forming unipolar voltage pulse (5...
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established STEAM
Steam Resonator purpose: superheated steam via pulsating voltage fields with restricted amp flow
The Steam Resonant Cavity produces superheated steam by applying pulsating voltage fields on opposite sides of a water molecule while restricting amp flow, using an alternate pulsing circuit (Q5/Q6) f...
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established STEAM
Repetitive opposite-polarity pulses at a set pulse frequency heat water bath to desired temperature
Repetitive formation of opposite voltage pulses (166/167) at a given pulse-frequency continues to heat the water bath (68) until a desired temperature is reached.
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established STEAM
Repeated molecular deflection produces kinetic particle-impact energy that heats the water bath
The oscillating deflection of water molecules between plates E5 and E6 produces kinetic energy (165) via particle impact, which in turn heats the water bath (68).
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established STEAM
Reversing to negative pulse deflects water molecule toward opposite plate E6
By reversing to a negative voltage pulse (167), the water molecule (210) is instead deflected in the opposite direction toward voltage surface E6.
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established STEAM
Positive pulse deflects water molecule toward plate E5 via attraction and repulsion forces
Once positive energized, water molecule (210) of water bath (68) is deflected toward voltage surface E5 via both opposite electrical attraction force (162) and electrical repelling force (161).
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established STEAM
Steam Resonator (450) inserts into Fuel Cell (120) for cold-weather operation
To ensure proper Fuel Cell operation during frigid or below-freezing conditions, the Steam Resonator assembly (450, Figure 3-46) is inserted into the Fuel Cell (120, Figure 3-24) and thermostatically...
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established STEAM
WFC Steam Resonator heats water by oscillating bipolar water molecules with opposite voltage fields, without amperage
Oscillating the bipolar water molecule by way of opposite voltage fields without amp influxing to heat water on demand defines the 'Mode of Operability' of the WFC Steam Resonator.
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established STEAM
WFC Steam Resonator incorporates the VIC Switchover Circuit to cause Particle Oscillation
The Voltage Flexing Process, which deflects the water molecule under physical and electrical stress to emit thermal heat energy, is implemented via the WFC Steam Resonator technology, which incorporat...