Negative Inductance and measure of Magnetic force.

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There are two things to take note of in this video: One, the Neo magnets are positioned N-S, opposite poles on each side of the gadolinium. Second; The temperature increase is instantaneous:


Precisely at the Currie point, a small increase in temperature would cause the gadolinium to grow non-magnetic and shunt the PM field.

https://www.youtube.com/watch?v=o8gBtNsL1Kc

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The temperature rise in gadolinium is 2 degrees Celsius per Tesla of magnetic force. A synchronous motor-stator, configured as a horseshoe electro magnet around a gadolinium flux gate (The same size as the diametric cylinder rotor magnet), with two neo cylinders at 90 degrees that would allow the magnet wraps to generate current both as the gadolinium shunted and grew magnetic too.

We would need two gadolinium flux gates plus two horseshoe EM's and four Neo cylinders wrapped with copper output coils and two cross bar magnets at each end.

This would give us four horseshoe magnets; Two electro at 90 degrees to trigger the flux gates and two PM horseshoes connected on each end. This entire apparatus would rest in a temperature controlled enclousure.

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Here's a picture of the stator and rotor. The "Gadolinium flux gate cylinder" should be the same size and sit in the same position:

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The Peltier module coupled with powerful PM's can speed the frequency up:

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The Arduino board and temperature control circuit can regulate the temperature of the gadolinium cylinder to within a 1/00th of a degree centigrade with a Peltier module..

The temperature of the gadolinium needs to be raised by both the permanent magnets and the EM stator to a point above the currie point of 68 degrees Fahrenheit.

The Peltier and Arduino circuit can cool it to the exact temperature, then the power and pulse width to the EM coil can be adjusted. The duty cycle would control the output duration. A signal generator would help do this job.