Harmonics and Quantum Mechanics

This video explain Quantum Mechanics using Ray Tomes' Harmonic Theory combined with Quantum Atom Theory. Harmonic Theory and Q A T are very similar and are both trying to explain different aspects of the same thing. One the wave structure of matter the other the time continuum. An understanding of time can explain how we can have finite harmonic standing waves within infinite space. The Electromagnetic Spectrum is infinite therefore our Universe must an infinity. But just like a violin string which is bound at both ends the wave function or standing wave will be bound at both ends by a moment in time by a quantum particle in the form of a photon. In this way each moment in time creates its own harmonics.
Find more at
www.quantumartandpoetry.blogspot.com

Category:

Entertainment

Tags:

• Quantum
• Mechanics
• harmonic
• waves
• fractal
• self
• similarity
• electromagnetic
• radiation
• infinity
• time
• continuum
• light
• beauty
• art

[kepler5813]

Nick - a problem remaining for me is how to account for freewill causing a wave function collapse precisely at the fractal boundaries, which are related to the Fibonacci sequence of numbers. If the energy of the harmony waves is initiated by a photon-electron absorption, how can collective conscious choice be so precise? Can a sunflower design its own shape?

[nickharvey7]

@kepler5813 The wave function can be explained as a vector the energy level of each new vector is a ratio to the two previous vectors. The Fibonacci sequence 1, 2, 3, 5, 8, 13, 21, etc is formed naturally by the geometry of spacetime itself. Not because it is the most economical way of using that space, but because of a universal geometrical process that a Sunflower uses to design its own shape out of an infinity of possibilities.

[kepler5813]

@kepler5813 so can freewill really collapse a wave function by choice? is it not bound by fractality? is there something in our brain that obeys the Fibonacci sequence?

[newbetterandhappy]

The electromagnetic spectrum is bounded at the short end by the Planck length (the wavelength where the mass makes it a black hole), if not longer. An upper bound of measurability and falisfiability would be the size of the Observable Universe, a finite quantity. Falsifiabilty and measurability is likely also limited by the Uncertianty Principle.