Magnet coil cores, demagnetization power and Lenz delay.

[MarkE]

These graphs represent the current and voltage of the Tunnel and Zener diodes: You can see how the turn on voltage of the Zener in red at the bottom, corresponds to the peak and current drop of the Tunnel in blue at the top:

Quadrant 1 operation of a Zener diode is like any ordinary junction diode.

[synchro1]

Quadrant 1 operation of a Zener diode is like any ordinary junction diode.

So what. That's just to make you look Smart.

[MarkE]

So what. That's just to make you look Smart.

It raises the question why you want to compare a Zener diode to a tunnel diode in Quadrant 1, when the behavior that makes a Zener unique and useful is all in Quadrant 3.

[synchro1]

It raises the question why you want to compare a Zener diode to a tunnel diode in Quadrant 1, when the behavior that makes a Zener unique and useful is all in Quadrant 3.

Get lost you pest!

[synchro1]

On further reflection I see the "Linear Stepper Motor" as a good addition to the "Intelligent Core" output coil's overall performace. The micro-processor controlled positioner can be regulated by the main capacitor charging rate. The coil-rotor gap is another very important flux control parameter and needs to partner with the core dampener.

After the core's completely de-fluxed and the charging surge from the conducting Zener reaches the main storage capacitor, the stepper motor needs to begin to retract the core away from the accelerating rotor at a precise and tiny incremental amount.

The coil needs three phases. One; the initial rotor acceleration phase to CMF, which is lowered by Two; the diode controlled core flux management followed by Three; the incremental linear stepper motor re-positioning.

A seperate power coil for run up can serve a dual purpose and function as a drag inducing output coil to help stabilize rotor speed.

                                                        The power of "Lenz Reversed Acceleration" is limitless!