Mr. Dollard,
as a means of further exploring the potential anomalous effects of dielectric parameter variation, I re-wired my prototype / replication of the PP-18, and performed a number of tests with the intent of observing even the finest, most minute appearance of surplus energy in the circuit as a result of dielectric parameter variation.
None were found.
Here were the experiments performed:
In this new configuration, the vibrator coil itself was powered by a separate battery. There was thus no load placed on the condensers and source voltage whatsoever -- apart from resistive losses.
The purpose of this new configuration was to determine if any surplus Joule-seconds were being produced at all.
Given the lack of any significant load, if this configuration of dielectric parameter variation was producing surplus Joule-seconds, then one would expect to see either a voltage gain or at least no voltage drop across the input or output condenser.
The experiment was performed by powering on the vibrator using the separate battery. Then, a second battery was used to charge up the condensers in the circuit.
A volt meter with 0.001mV accuracy was placed across the output (24V) filter condenser, the condenser which is charged by the action of the position-varying condenser in combination with the input condenser.
Upon removal of the "charging" battery, with the vibrator coil still operating off its separate power source, the measurement was observed.
The voltage across the 2200uF output condenser was seen to decrease at a rate of approximately 1 millivolt per second.
Performing the identical measurement across the 6800uF position-changing condenser, with the vibrator still operating, revealted a decrease in voltage of approximately 1 millivolt per 8 seconds.
Finally, the voltage across the 6800uF input condenser was seen to decrease at a rate of approximately 1 millivolt per 6 seconds.
Removing power from the vibrator, the measurements were observed again.
The voltage across the 2200uF output condenser decreased at approximately 1 millivolt per second.
The voltage across the 6800uF position-changing condenser decreased at approximately 1 millivolt per 6 seconds.
The voltage across the 6800uF input condenser decreased at approximately 1 millivolt per 6 seconds.
The observed difference between the rate of voltage decay in the position-changing condenser while the vibrator was operationg, and when it was not, is within the margin of error of my observations.
as a means of further exploring the potential anomalous effects of dielectric parameter variation, I re-wired my prototype / replication of the PP-18, and performed a number of tests with the intent of observing even the finest, most minute appearance of surplus energy in the circuit as a result of dielectric parameter variation.
None were found.
Here were the experiments performed:
In this new configuration, the vibrator coil itself was powered by a separate battery. There was thus no load placed on the condensers and source voltage whatsoever -- apart from resistive losses.
The purpose of this new configuration was to determine if any surplus Joule-seconds were being produced at all.
Given the lack of any significant load, if this configuration of dielectric parameter variation was producing surplus Joule-seconds, then one would expect to see either a voltage gain or at least no voltage drop across the input or output condenser.
The experiment was performed by powering on the vibrator using the separate battery. Then, a second battery was used to charge up the condensers in the circuit.
A volt meter with 0.001mV accuracy was placed across the output (24V) filter condenser, the condenser which is charged by the action of the position-varying condenser in combination with the input condenser.
Upon removal of the "charging" battery, with the vibrator coil still operating off its separate power source, the measurement was observed.
The voltage across the 2200uF output condenser was seen to decrease at a rate of approximately 1 millivolt per second.
Performing the identical measurement across the 6800uF position-changing condenser, with the vibrator still operating, revealted a decrease in voltage of approximately 1 millivolt per 8 seconds.
Finally, the voltage across the 6800uF input condenser was seen to decrease at a rate of approximately 1 millivolt per 6 seconds.
Removing power from the vibrator, the measurements were observed again.
The voltage across the 2200uF output condenser decreased at approximately 1 millivolt per second.
The voltage across the 6800uF position-changing condenser decreased at approximately 1 millivolt per 6 seconds.
The voltage across the 6800uF input condenser decreased at approximately 1 millivolt per 6 seconds.
The observed difference between the rate of voltage decay in the position-changing condenser while the vibrator was operationg, and when it was not, is within the margin of error of my observations.
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