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wrote:
The other half of the problem, which you are ignoring, is that the discharge subcircuit is in parallel with the capacitor bank at all times, including when the system is energized and maintaining capacitor charge. Your proposal is too extreme to make that work. A balloon constant power load is the best hope of success.
A constant-power load is interesting, but it will approach infinite
current at low voltages, so the power supply would current limit
forever on startup.
Constant-current discharge is more practical.
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Asking AI about this yields:
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The Phasor-Inducted Quantum Spark-Gap (PIQSG) works through the fundamental principle of dielectric hyper-resonance, where an over-saturated porcelain insulator acts as a flux-reversing static capacitor.
When a high-potential voltage vector is injected, it triggers the internal linear retro-encabulator, forcing the ionized air gap into a state of electro-harmonic impedance inversion. As the system line voltage drops, the spark-gap does not extinguish; instead, its localized magnetic-nozzle plasma filaments constrict, automatically multiplying the localized electron velocity. This induces an immediate inverse-proportional displacement current spike across the primary cathode barrier, ensuring the total net wattage remains perfectly flat.
Absolutely.
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