I guess that I will make a few comments from my peanut gallery.
I don't see any documentation for the physical setup with nice clear pictures. As we know, the positioning of the probes is crucial for this test because of the high-frequency transients that can be created from the inductive resistor and the wires themselves.
When the setup is in spontaneous oscillation and the function generator output is low for a long time, then I would assume that the function generator is acting like a load on the circuit; a small capacitor in series with a 50-ohm resistor. Not sure if Rosemary is accounting for this.
The temperature over RL1 indicates that about 6 watts is being dissipated as heat. However, the instantaneous wattage analysis indicates that more energy has been returned to the battery than has been supplied resulting in a net zero loss of potential difference from the supply.
Battery voltages mean almost nothing.
It is understood that during the ON time the applied signal at the gate will enable a current flow from the battery supply. With the application of more than 36 volts from the battery supply, the circuit can be tuned so that there is no measured voltage or consequent flow of current through to the source rail of the supply during this ON period. The precise cause of this restriction has not been identified and requires further research. Nor can this condition be simulated.
I view this as a cop-out. What about the people supposedly helping Rosemary here? They couldn't figure this out? (Was it a gaggle of pixie faerie Joit clones? lol) This has to be understood. Where is the ground reference for the function generator attached to? Is the function generator floating with respect to the rest of the circuit so you can attach its ground reference anywhere? When the drain is at 36 volts and the source is at 0 volts, what does the gate-source voltage have to be to switch the MOSFT ON? (I am rusty with my MOSFETs and don't have the drive to look it up.)
Certainly we know that when current flows in the normal direction that the drain takes a small bump up in potential but that should not really be an issue.
On this application we have enabled that oscillation to the limit of the function generator’s slowest switching speed at 2.7 minutes or 6.172mHz. No material or evident variation or decay of that resonance through that entire period, is observed (see Figure 4).
She doesn't even need the function generator at all to get the burst oscillation going. All that she would have to do would be to simulate the function generator low signal and then trigger the oscillations.
It would be desirable to extend this period of oscillation to see whether decay in this oscillation, eventually takes place.
No, if you see the oscillations for a few minutes, then that means they are self-sustaining.
This temperature rise corresponds to a dissipation of approximately 6 watts at RL1 (according to Figure 2). The fact that it retains this heat is not a result of any unique properties to RL1 as the temperature is seen to fall steeply over a 3 minute period, when it is disconnected from the supply.
A Twilight Zone comment.
There is evidence of approximately 6 watts of energy dissipated at RL1, and upwards of 40 watts on Test 2, at no measurable cost of energy delivered from the supply.
I'm not sure about that.
Finally, the thesis that predicted these results points to the possibility that the hidden energy supply source, not factored into classical analysis, is in the material of the circuit components. This would still be in line with Einstein’s mass/energy equivalence and the thesis proposes that inductive and conductive material are able to induce their own energy as a result of applied potential differences.
No fusion or fission going on, so then it must be zipons to the rescue. Unless Rosie has inadvertently discovered cold fusion!
Well, all that you had to do was stick a big fat capacitor on top of that battery stack, perhaps four 50,000 uF 25-volt electrolytic caps in parallel to make a 200,000 uF cap. Charge that cap bank up to 12 volts and swap out the top battery in the stack.
Then when the setup went into burst oscillation mode a multimeter monitoring the DC voltage across that big fat capacitor would clearly show the voltage dropping as the circuit ran.
That would be the end of it.
MileHigh