Mechanical Magnetic Torque Amplifier

[Allen Burgess]

D.C. fan powering two magnet attraction rotor.

Here's the four magnet rotor with two sides empty, generating power in the magnet backed masking coil:

https://youtu.be/s-Yw4QstSHU

[Allen Burgess]

"Latching Reed Switch" contiuity test on D.C. fan commutator.

Here's a video of the first power switch blinking an LED:

https://youtu.be/z76vwiVP3zk

Th neo magnet fragment was not glued securely enough and detaches toward the end of the video. Not big problem!

[Allen Burgess]

"Latching Reed Switch" EM oscillator

Here's the 500 newton electro magnet masking the attraction of 6 ceramic block magnets, controlled by the "Latching Reed Switch":

https://www.youtube.com/watch?v=0KSGNseHga4

[Allen Burgess]

Reed switch spinner II

This 1.5 volt battery Reed switch pulse motor, loops power to source through a reverse biased LED. This blindingly simple circuit would free the D.C. fan to generate power:

https://www.youtube.com/watch?v=vWvI7T7h3tk

[Allen Burgess]

Reciprocating twin "Latching Reed Switches".

Here's a slim video of the finished commutator with both "Latching Reed Switches" installed. I tested the continuity with two LED's that blinked on and off in serial sequence. I also positioned an output coil under the 500 newton electro-magnet with an air core large enough to cleanly fit the oscillating magnet stack:

https://www.youtube.com/watch?v=isA9JCe8mnc

[Allen Burgess]

View of twin reciprocating "Latching Reed Switches" flashing LEDS.

Here's a video of the commutator with the rotor removed showing the reciprocal "Latching Reed Switches" flashing LEDS from overhead:

https://youtu.be/kWKVhRdecZQ

[Allen Burgess]

Bladeless D.C. fan running commutator from a 9 volt battery.

This video shows a streamlined D.C. fan commutator with the blades removed. There's a "Latching Reed Switch" mounted inside the frame and a trigger magnet fastened to the hub. This setup is powered by a run down 9 volt battery with a pot and mosfet speed controller:

https://youtu.be/TzNuGdC4SbQ

[Allen Burgess]

Two trigger magnet blade-less D.C. fan commutator.

Here's a video of the finished blade-less reciprocating D.C. fan "Latching Reed Switch" commutator working with only two trigger magnets: This version is suitable to box.

https://www.youtube.com/watch?v=Z79XWhN65ZY

Now that I reduced the load and input voltage, I eliminated the speed controller mosfet and simply have a 100K potentiometer wired in series between the 9 volt battery and D.C. fan. This combination is working perfectly.

[Allen Burgess]

Dual reciprocating reed switches running on 9 volts.

This setup is as simple as it gets. The D.C. fan is running on very little input but the contacts can carry very high current:

https://www.youtube.com/watch?v=XvZoShfxSDU

[Allen Burgess]

Output measurements.

Video of the first power output measurements:

https://www.youtube.com/watch?v=UuohIRAw76c

Turning the commutator slowly by hand makes the lower stack of 4 ceramic disks jump a single time, but the output of around 7.5 volts persists for a protracted period of time. What might be causing that effect? Perhaps "Magnetic field reverberation". The output drops to a .25 volts as the commutator speeds up. Slowing the commutator down towards the end of the video makes the output climb to as high as 2.5 volts; Stopping it generates the 7.5 again for an extended time!

I noticed an inverse relationship between frequency and output with the attraction masking oscillator. It appears that the maximum power curve may be in the fractional hertz with this generator. The prolonged output duration from the single pulse amazed me. Truly awesome initial test result!

The best commutator might be a 6 RPM microwave carousel motor.

[Allen Burgess]

2nd test

I ran a second test with 8 ceramic discs on the lower stack and am generating a steady 8 A.C. volts out of the electro-magnet. My input is 12 D.C. volts at 1.5 amps. That's 4/5 of the input potential returning. I'll check the amperage on my next test. This is not BEMF recovery. The lower oscillating magnet stack still has the potential to generate output as well.

[Allen Burgess]

Electro-magnet comparison.

Look at the difference between the diameters of these two electro-magnets pictured below: It's interesting that the 500 Newton Electro-magnet on the left has ten times the attraction strength as the 50 Newton coil on the right. The diameter of the cores differ by a non-proportional amount; 3/4" to 1/2".

The masking oscillator generates power in proportion to the magnet force it equals in strength. Both Electro-magnets develop their maximum strength with the same 12 volt input. This relationship is fascinating to contemplate.

[Allen Burgess]

Second potentiometer.

I wired a second 10K potentiometer in series with the 100K potentiometer and managed to lower the commutator fan R.P.M. down to around a Hertz.

I slowed the rotor for the second test by applying pressure to the fan rotor with my index finger. I also had the DMM wrongfully positioned on the D.C. setting. I'm certain my second output reading of 8 A.C. volts was accurate. That amounted to 2/3 of the input voltage. That's a whopping recovery percentage from the primary EM coil. I'm currently testing for amperage.

My theory predicts a 100% chance of going OU with this configuration.

[Allen Burgess]

Elastic oscillator.

Here's a video of the "Reed switch commutator" triggering the overhead elastic ceramic ring magnet stack:

https://www.youtube.com/watch?v=f9sSk9MwJok

[Allen Burgess]

Final conclusion.

Art Porter's solid state GAP generator is powered by an A.C. sine wave inverted from a D.C. power source and controlled by a commutator. The positive and negative polarities of the A.C current serve to amplify and neutralize the permanent magnet fields that sandwich his primary coil. Hob Nilre has demonstrated conclusively that weight in copper increases magnetic field strength in an air core power coil with the same input current. Art's coil induction is balanced to mask the attraction gauss of his Neo disc magnets. It's not hard to visualize where the break even and over unity COP line would appear. We can calculate it with a high degree of scientific accuracy. Art's measurements demonstrate that the neutralization side of the A.C. sine wave delivers more output than the amplification one. My simple two switch commutator delivers a D.C neutralization pulse and recovers output. The setup works fine. Winding a larger copper coil with sufficent weight in copper to mask the attraction of my two large Neo disks at a predetermined input would result in a predictable over unity COP when driven by my two switch commutator. This conclusion is inescapable.