@Pinwheel
It was our own design, based strictly on finding the most convenient method to alter inductance synchronously.
The first major revelation was that it took a *decrease* in inductance to cause an *increase* in current. Many had stated that it was an *increase* of inductance for an *increase* in current. Of course for a given amount of energy, that is exactly what you would expect...current must go up if inductance goes down. Obviously there must be some gain there, or the system would not ramp up to high power levels.
The second major revelation was that mechanically reducing inductance takes work, and work isn't your friend. From what we could tell, we were heading toward unity at best.
I had actually dug through the Russian document at the time and had already concluded that their motor was loading like ours. They were not using a ferrous core, so my guess is the parameter change mechanism is a magnetic field in the rotor created by eddy currents. Aluminum simply wouldn't provide enough of a permeability change to alter the inductance much. The aluminum would be very happy to oppose the magnetic field in the inductors via it's own field though. I don't have proof of that, but their statement that they were unable to go to higher current due to the motor limitation was a big clue. Magnetic damping gets bad fast.
It's clear that synchronous parameter change can be used to produce energy, and it may even be possible to do it without an offsetting bit of mechanical work...however...I suspect that it will require parameter change in some kind of light speed scenario. Meaning that the real answer to power synthesis is not directly in parameter change, but is in some kind of quadrant manipulation that shifts the action/reaction to 90 or 0 degrees instead of 180.
Resonant solenoids are standing wave devices where the operating frequency is inherently related to speed of light (if correctly tuned), whereas LC resonances are not necessarily so. As such, I suspect that the answer will not be found in the simple LC, but in the coil. I feel that the C implicit in the coil is not symmetrical, and that the asymmetry manifests increasingly as the standing wave amplitude increases. That may provide the parameter change in a quadrant friendly way, and if that is true, the coil may exhibit gain by parameter change without any external intervention other than normal excitation. Since the coil would be gaining energy during a portion of the cycle, and giving it back during the other, it would have to be externally harnessed and would not have the potential for internal runaway. A dual coil arrangement would offer the possibility of a runaway, if it could be phased correctly.
It is my hope that EPD is moving in the direction of eventually reducing the theory to 'when A, B, and C are true, reaction-less energy production D occurs'. My gut tells me the math will bear that out, but applications are our focus here, not theory.
It was our own design, based strictly on finding the most convenient method to alter inductance synchronously.
The first major revelation was that it took a *decrease* in inductance to cause an *increase* in current. Many had stated that it was an *increase* of inductance for an *increase* in current. Of course for a given amount of energy, that is exactly what you would expect...current must go up if inductance goes down. Obviously there must be some gain there, or the system would not ramp up to high power levels.
The second major revelation was that mechanically reducing inductance takes work, and work isn't your friend. From what we could tell, we were heading toward unity at best.
I had actually dug through the Russian document at the time and had already concluded that their motor was loading like ours. They were not using a ferrous core, so my guess is the parameter change mechanism is a magnetic field in the rotor created by eddy currents. Aluminum simply wouldn't provide enough of a permeability change to alter the inductance much. The aluminum would be very happy to oppose the magnetic field in the inductors via it's own field though. I don't have proof of that, but their statement that they were unable to go to higher current due to the motor limitation was a big clue. Magnetic damping gets bad fast.
It's clear that synchronous parameter change can be used to produce energy, and it may even be possible to do it without an offsetting bit of mechanical work...however...I suspect that it will require parameter change in some kind of light speed scenario. Meaning that the real answer to power synthesis is not directly in parameter change, but is in some kind of quadrant manipulation that shifts the action/reaction to 90 or 0 degrees instead of 180.
Resonant solenoids are standing wave devices where the operating frequency is inherently related to speed of light (if correctly tuned), whereas LC resonances are not necessarily so. As such, I suspect that the answer will not be found in the simple LC, but in the coil. I feel that the C implicit in the coil is not symmetrical, and that the asymmetry manifests increasingly as the standing wave amplitude increases. That may provide the parameter change in a quadrant friendly way, and if that is true, the coil may exhibit gain by parameter change without any external intervention other than normal excitation. Since the coil would be gaining energy during a portion of the cycle, and giving it back during the other, it would have to be externally harnessed and would not have the potential for internal runaway. A dual coil arrangement would offer the possibility of a runaway, if it could be phased correctly.
It is my hope that EPD is moving in the direction of eventually reducing the theory to 'when A, B, and C are true, reaction-less energy production D occurs'. My gut tells me the math will bear that out, but applications are our focus here, not theory.
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