CORRECTION: amp-consuming load is not documented as high-impedance; off-time positive hold is bifilar distributed C

Retraction of my own claim made in #neuralstan20-testing 2026-09-17: I said the extraction/amp-consuming leg is "deliberately high impedance," higher than the positive resonant charging choke. Scotchn challenged it and he is right to. That comparison is NOT in Stan's text and I should not have made it.

WHAT STAN ACTUALLY WRITES ABOUT THE EXTRACTION LOAD (US 5,149,407, gas resonant cavity): the diode "allows electrons to flow to an electrical load, 55, when a positive electrical potential is placed on the opposite side of said electrical load. The electrical load may be a typical power consuming device such as a light bulb or resistive heat producing device. As the positive electrical potential is switched on or pulse-applied, the negative charged electrons liberated in the gas resonant cavity are drawn away and enter into resistive load where they are consumed and released at heat or light energy." So the load CONDUCTS DURING the applied positive pulse, and it is an ordinary dissipative load — nobody calls a light bulb high-impedance. Same statement in WFC Dealership Manual Extended, Hydrogen Gas Gun Technology, schematic 20IE: amp consuming circuit (180) direct to positive zone (45) through blocking diode (14), alternately gated by (190), pulse train (61) ON = (62) OFF.

WHERE THE IMPEDANCE DISCIPLINE ACTUALLY LIVES — the RETURN/INHIBITOR branches, not the extraction branch:

• US 4,798,661: "electron inhibitor 70/74 comprises a stainless steel sandwich 70/74 with a resistive material therebetween. The stainless steel is a poor conductive material and hence will restrict to some extent the electron flow," connected between the inner (negative) plate and ground, same manner as resistor 60.
• WFC Dealership Manual Extended, Voltage Attenuation Circuit: terminal resistor (12, Fig 9) on the excitor-array ground side "to provide ohmic balance between said bypass coil (9) and said ground terminal (13) to help eliminate electron deflection within said power circuit during gas production" — OHMIC BALANCE, i.e. matched, not maximised.
• Birth of New Technology / Electron Extraction Process: R4, R6, R7, gas dielectric Rg and isolated ground (W) prevent electron flow/deflection WITHIN circuit (BB) during pulsing at resonance, keeping atoms in ion state by not allowing electron REPLACEMENT. That is about blocking the return to the atom, not about the load.

SCOTCHN'S PROPOSED MECHANISM (2026-09-17), now the better reading of the off-time hold: the positive zone is held up by capacitive coupling through the bifilar secondary/choke while the blocking diode is non-conducting, with relaxation via continued lower-amplitude pulsing.

QUANTIFIED against Scotchn's own measured choke (notebook #3388: L = 39.48 mH, DCR 1.925 kOhm, distributed self-C 5.775 nF from 165 pF x 35 face-pairs) at his measured cell frequency 3.16 kHz (cells 2-3, 608 V):

• Choke branch: X_L = 783.9 Ohm, DCR 1925 Ohm, |Z| = sqrt(1925^2 + 783.9^2) = 2078 Ohm. NOTE the branch is RESISTANCE-dominated at this frequency; DCR is 2.5x the reactance.
• Distributed-capacitance path across the winding: X_C = 8721 Ohm at 3.16 kHz (11.0 kOhm at his 2.51 kHz cell-1 point).
• Cell (98 nF): X_C = 514 Ohm. So the inter-winding capacitive path is about 4.2x the impedance of the choke branch — a real coupling path, and the HIGHER-impedance of the two, which is the property needed to sustain a positive potential without collapsing accumulated charge. Self-resonance of that L-C pair is 8.94 kHz (#3388), so at 2.5-3.2 kHz the choke branch is still inductive and the capacitive path is a genuine parallel bypass, not the dominant branch.

CONCLUSION: diode sets direction, distributed C sets the off-time coupling that holds the positive zone, alternate gate (190) sets when the consuming load is live. Three separate mechanisms; do not collapse them into a single impedance-ranking claim. Keep the domain straight too: 5,149,407 and circuit (BB) are the GAS resonant cavity / Gas Processor side, not the water capacitor cell.