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.

v = n * f * λ

v = x * ( 1 Hz ) * Pi rad There are 3 scalars: n, 1 and Pi, for each variable, respectively

Example 1

v = 999 m/s

n = ( 999 m/s ) / ( 1 Hz * Pi rad )

= 318 rad

The electrical equivalent is I = Q / T, f * Q

= n * C / s

Where wavelength is correctly described below, substitute it with charge ( Q ).

Frequency is the only universal value and contrary to the history of Physics' understanding of it, it has one constant value of 1 Hz or one cycle of all of time (t) in any given moment. Moments such as ω, are all rates of period. They are all divided by T. The moment is the division by 't'. In harmonic Physics, frequency is congruent to the diameter of a unit circle where the unit circle equivalent to the closed universe's circumference. If in doubt about its radial dimensions, natures spontaneous bubble formation including planetoids and stars provides the insight necessary to gauge that we live in a spherical universe.

Poor instrument variable or unit assignment is why we have presumed to adjust frequency when it has been wavelength adjustment which we have been performing. Everything has frequency as it is they key to variation and of circular motion or oscillation. Being univariable allows for the relative distortion or illusion of c, the speed of light, producing a continuum or dimension of v, velocity, of countless number.

Wavelength is distance subject to various spatial or inertial reference frame density differentials. Charge magnitude is charge density.

To achieve the desired short waveform in the past we would errantly aim to reach UHF (ultra high frequency). The more correct way to approach the similar is to attain inversely proportional wavelength - ultra short wavelength (USW). Voltage is wavelength dependent, while the frequency remains constant.

The ultra low wavelength can be controlled in two ways.

1. The various wavelengths of transmission can be transformed from high wavelength to ULW via a transformer, and the reverse performed near premises, city block/grid. This will save up to 10% electrical energy lost to power grid heat, in Australia, and 5% - 7% for most of the world's power grids.

   
   

2. Using an band pass filter will produce a coherent wave for cleaner, cooler distribution. That sort of power coherence is appropriate only for electric work loads such as railway carriages tram drive-trains or bogeys. For regular supply, the reverse must occur close to the delivery point to continue to service the requirement of devices which run best from a decoherent power signal.

   
   

   They are heating and lighting devices, as well as digital electronics. A simple inclusion of a high Ohm resistance module or individual resistor would generate renewed noise floor on the more negative end of a diode, as the power, base emitter. That power would be stepped up by a voltage divider, proportional to the end user’s power level requirements.

   
   

3. Distribution will be a lot simply if addition or arithmetically combined, ULW (ultra long wavelength) carrier waves were used in amplification to carry power wavelength transmissions. A carrier wave may have the same low, natural number amplification of a minimum factor of ‘2’. See post, https://www.centreweave.com/post/extremely-low-radio-power-amplification-elp for understanding of the vast efficiencies of arithmetic versus dot product amplification.

   
   

   1. The USW set of associated electrical power waves would be a wave network. Those networks can be used for distribution purposes.

   2. The analogy which best describes them is unbreaking ocean waves on larger (high amplification ocean swell). Each unique ocean swell would form a unique wave network and behave independently of other, similar networks. In the technology the carrier - analogous to the swell, is simply the entangled wave set. There is no initial wave to carry other signals on. It is unnecessary.

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