Escumo,
You may want to experimenting with the size of the contacts where the two end contacts connect as 1. These 2 end contacts control the peaks of your two waves.
The Figuera drawings show 1 input polarity being used and his writing is clear that 2 polarity AC come out the output.
To get your induced wave to be 2 equal polarities, you must only start shrinking the magnetic field when the induced voltage is at zero. Only then can the induced wave be equal on both sides, negative and positive.
So if your 2 contacts at the ends are large enough to cause a delay that matches your coil's capacitance, when the wave is at peak, it delays there and stops the magnetic change for a time. This allows the induced wave to fall to zero BEFORE shrinking the wave. Only then can the induced wave penetrate deep into the opposite polarity when shrinking the wave. And it is that reverse polarity that is responsible for eliminating Lenz.
I have replicated this on both the real resistor rig AND a signal generator. If you want, I can record a demonstration
In summary, it takes some extra power initially to cause the top flatline delay, but if timed correctly in regards to your coils, you can get that extra power you input back from reactance. So it could cost you next to nothing extra. But the decline (because it now starts at zero) causes magnetic flux changes in the coil and produces real usable power on the downward stroke.
You may want to experimenting with the size of the contacts where the two end contacts connect as 1. These 2 end contacts control the peaks of your two waves.
The Figuera drawings show 1 input polarity being used and his writing is clear that 2 polarity AC come out the output.
To get your induced wave to be 2 equal polarities, you must only start shrinking the magnetic field when the induced voltage is at zero. Only then can the induced wave be equal on both sides, negative and positive.
So if your 2 contacts at the ends are large enough to cause a delay that matches your coil's capacitance, when the wave is at peak, it delays there and stops the magnetic change for a time. This allows the induced wave to fall to zero BEFORE shrinking the wave. Only then can the induced wave penetrate deep into the opposite polarity when shrinking the wave. And it is that reverse polarity that is responsible for eliminating Lenz.
I have replicated this on both the real resistor rig AND a signal generator. If you want, I can record a demonstration
In summary, it takes some extra power initially to cause the top flatline delay, but if timed correctly in regards to your coils, you can get that extra power you input back from reactance. So it could cost you next to nothing extra. But the decline (because it now starts at zero) causes magnetic flux changes in the coil and produces real usable power on the downward stroke.