(952) · also written as a run, 952a xxx 952n
Stationary Voltage Fields
Also written positive voltage field · pulse-voltage wave-form · positive voltage zone · Voltage intensity
Where it is first named
... whichever the case may be, the applied stationary voltage fields (952/E13 – 953/E14) or (954/E15 – 956/E16) alternately switch over periodically superimposes electrical stress forces (S-S' and R - R') onto the energy spectrum of the water molecule atom (s )(210) while physical flexing (951) of Figure (11-5) of the water molecule atom (s) occurs
How it is written
- (952) 2×
- (952/953) 2× with (953) Stationary Voltage Fields
- (952 953) 1× with (953) Stationary Voltage Fields
- (952a xxx 952n) 1×
- (952/E13 – 953/E14) 1× with (E13) Stationary Positive Voltage Plate, (953) Stationary Voltage Fields, (E14) Stationary Voltage Fields
- (E13/952) 1× with (E13) Stationary Positive Voltage Plate
952a xxx 952n is Meyer's shorthand for a run of the same thing: 952a is the first, 952n the last, and the x's stand for however many lie between. Every stage of the run is this one numeral.
Drawings 6
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dual unipolar voltage pulse circuit (1010) of Figure (11-1) · Voltage Flexing Process
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(1030) of figure (11-3) · Voltage Flexing Process
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(990) of Figure (10-3) · Propagating Electrical Stress
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Figure (10-3) · Voltage to Amp Differential Ratio
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"Voltage Energized Thermal Transference Effect" (1050) of Figure (11-5) · Voltage Flexing Process
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voltage intensifier circuit (990) of Figure (10-3) · VIC Switchover Circuit
Where it is named · 8
Voltage Flexing Process 3×
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stationary voltage fields (952/E13 – 953/E14)
... whichever the case may be, the applied stationary voltage fields (952/E13 – 953/E14) or (954/E15 – 956/E16) alternately switch over periodically superimposes electrical stress forces (S-S' and R - R') onto the energy spectrum of the water molecule atom (s )(210) while physical flexing (951) of Figure (11-5) of the water molecule atom (s) occurs
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pulse-voltage wave-form (952 953)
... emitting the additive/surplus energy away from the excited atom (s) in the form of radiant thermal heat energy (165) when the flexed atom (s) (undergoing physical/electrical stress) returns to stable state of atomic equilibrium once applied electrical pulse-voltage wave-form (952 953) or (954 - 956) is electrically switch off and permitted to collapse back toward electrical ground state of zero volts (0V).
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Repetitive formation of pulse voltage fields (952a xxx 952n) - 953a xxx 953n) or (954a xxx 954n- 956a xxx 956n) continues this "Voltage Energized Thermal Transference Effect" (1050) of Figure (11-5) (hereinafter called Atomic Flexing Process) during each and every pulse voltage on-time, as so illustrated by way of gated pulse-voltage waveform (1020) of Figure (11-2).
VIC Switchover Circuit 5×
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positive voltage field (952)
When incoming programmable gated pulse-frequency waveform (T4A) of Figure (11-2) electrically energizes primary input coil (957) of Figure (11-3) to produce positive voltage field (952) across voltage zone (EI3), the bipolar electrical charged water molecule having a negative charged oxygen atom is deflected and moved toward stationary positive voltage plate (E13) due to the opposit …
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stationary voltage fields (952/953)
… relatively at the same displacement velocity since both particle masses of the water molecule (s) are basically identical in volume-size and the electrical intensity on both stationary voltage fields (952/953) are similar due to the fact that both primary coil (957) and secondary coil (958) comprising and forming voltage intensifier circuit (990) of Figure (10-3) are together bifilar wrapped in equal lengt …
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positive voltage field (952)
The simultaneous formation of both the positive voltage field (952) and the negative voltage field (953) is simply accomplished by the mutual electromagnetic inductance coupling field that is produced between the two bifilar wrapped coils (957/56 - 958/62) when the primary coil (957/56) is electrically energized by incoming voltage pulse train (T4a xxx T4n), as so illustrated in (970) of Figure (10-1).
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Voltage intensity (952/953)
Voltage intensity (952/953) is, therefore, directly determined by the number of turns of each coil (957/958) as to the applied voltage amplitude of incoming pulse-wave ( ... xxx Vn) (1060) of Figure (11-2c).
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positive voltage zone (E13/952)
Pairing together positive voltage zone (E13/952) with negative voltage zone (E16/956) and doing the same with voltage-surfaces (E14/953) to (E15/954) as so graphically shown in (1O1O) of Figure (11-1) and each having an longitudinal axis of identical length, now, individually forms what is called hereinafter a "Differential Voltage Wave-guide" (1040)