Power Supply Enhanced by Quantum/Wave Engineering

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Power transmission is delivered at long wavelength. It should be transmitted at ultra short wavelength for greatest efficiency, so that it short circuits the very resistive and heat and resistance generating capacitors. Instead it will pass the inductors and solenoids (larger inductors). The power transmission will run cool, by comparison with today's example. To prevent power loss due to quantum inductive leakage, the entire power grid should form an electrical, private network. That simply means adding a signal wave of unique harmonic to the power wave, as indicated below.

Test the principles on a scale model of the grid.

n = harmonic

v = n * f * λ

v = n * ( 1 Hz ) * Pi rad

s = private network signal

i = variable current

i = a * sin ( θ )

a * sin ( ω [ p ] * t )

a * sin ( n [ p ] * 2 * Pi rad * ( 1 Hz ) * t )

i [s] = a [s] *sin ( ( n [ s ] - 1 / n [ s ] ) * 2 * Pi rad * (1 Hz) * t )

*** The most favourable, working model illustrates the reality of private network power sequestration versus public network power sharing. The model is that of broadcast radio. When devices are mutually tuned to the same wave harmonic by selecting the same ‘nominal frequency’, they share the electromagnetic power rationally.

The sharing ratio is according to the number of actively tuned devices and their individual and active power gains. When tuned to a unique nominal frequency, the power sharing is rationally unity. Threat device requires less gain to remain at a higher audio signal volume. Private network theory should be clearly demonstrating to be a Law of Electromagnetic Power Sharing. ***

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