Mechanical Magnetic Torque Amplifier

[Allen Burgess]

An "H" bridge and cross wired coils would alternate a 5 x horseshoe field from side to side.

[Allen Burgess]

Oscillator

Here's a Halbach oscillator with two additional stationary arrays, one on each end in repulsion, connected to each other. This could drive twin Kundel rotors, run by "H" bridge limit switches and return BEMF to source. Monopole oscillators attract the opposite side back like this Halbach design as well as repel.

[Allen Burgess]

OU Theory.

2 tiny coils trigger 40 magnets of force per cycle. The coils only equal the force of 2 permanent magnets.

What's the cop? Quick finger math tells us the COP is 20 times Overunity!

[Allen Burgess]

12 volt electro-magnet relay coil.



3/4 inch n52's. With a high enough amperage the electromagnet can develop a significantly stronger magnetic field than a permanent magnet.

[Allen Burgess]

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Re: Solid State Generator via Electromagnets + Halbach Array
« Reply #8 on: July 11, 2010, 07:36:45 PM »
Quote

Picture a Hallbach array sandwiched between two rotor wheels with staggered iron cleats attached along the edge of each of the insides, above and below. Activating the second and fourth electro magnet would make the Hallbach magnetic field shift from side to side with double the strength, attracting first the overhead then the staggered rotor cleat beneath; like the Art Porter design, a different coil assisted magnet motor, with a five to one pay off, strength doubling on each side! The Tesla bifilar high volatge magnet coil is wraped exactly like a Joule Thief, two wires three ends. The beginning of one wire attached to the end of the other. Twice the magnetic strength of a single wrap solenoid for the same wire length and input!

« Last Edit: July 11, 2010, 09:21:01 PM by synchro1

[Allen Burgess]

2/5's of the power stator's force comes from the electro-magnet coils. matched by 5/5's of pm force, 8/5's of the total force costs 2/5's in input. this would lower the cop to 4.

Twice the magnetic strength of a single wrap solenoid for the same wire length and input! turned out to be mistaken. proved to be the same.

4 throat depressors or popsicle sticks and rubber bands can form a solid, quick and dirty, planer halbach array form.

[Allen Burgess]

rectangular core halbach array electro-magnet

Rectangular core Halbach electro-magnet. Packing square 3d printed coil forms with ferrite composite epoxy would improve the building process. These coils were designed as Halbach levitation bearings:

[Allen Burgess]

Mechanical screw

Inserting half a screw thread collar in the core of the diametric tube magnet would permit a turnkey bolt to rotate it half way as it compressed. If the attraction force of the Halbach arrays were greater then the force the 2 diametrics would require to roll over, it might run as a mechanical perpetual motion machine; Only if those forces proved to be unequal.

[Allen Burgess]

spiral and turnkey

Here's a video with the spiral and key kind of action:

https://www.youtube.com/watch?v=s7rny2aIwlw

[Allen Burgess]

3x force

tripling the stators may help;

[Allen Burgess]

Spring rotation delay.

The Permanent Magnet Oscillator needs a spring loading mechanism like the one in the video. The Diametric needs to remain in position then snap around like the wheel in this video:

https://www.youtube.com/watch?v=zjjv...DoZiCk&index=5

[Allen Burgess]

The moving stator is in the middle, 2 halbach arrays back to back. The stationary stators on the ends each have 2 diametrics apiece. Rods run through them and cock the springs behind where there is room for them: this design was hastily thought out and seriously flawed.

the spring gears can mount underneath the frame.

[Allen Burgess]

upper and lower springs

4 screw key and spring wheels position over and under and connect to gears on both ends of the 2 rotating cylinders from each side.

[Allen Burgess]

Rack and 2 diametric pinon gears.

The 3 tier array closes and the key turns the screw attached to the spring loaded wheel. this wheel stores the compression in the wheel springs. The wheel snaps the rack across the top of the 2 cylinder gears. There's a second rack wheel and two gears on the bottom.

[Allen Burgess]

90 degrees

The stator array can turn 90 degrees so the diametric axis is on the perpendicular. A rack and pinion gear could turn the spring compression wheel from that angle. The arrays can be attracted or repelled by facing each other or at 90 degree angles and staggered like the leggo prototype.