Sunday 5 May 2024

Einstein time is a dimension in three dimensional space

This theory was first published in 2008 it explains the mathematics of Quantum Mechanics as a geometrical process that forms the characteristics of time.

The geometrical aspect of this process is based on Huygens’ Principle of 1670 that says,

“Every point on a light wave front has the potential for a new spherical 4πr² light wave".

Each point on the wave front represents a potential photon ∆E=hf electron interaction or coupling. The spherical surface forms a boundary condition or manifold for the uncertainty ∆×∆pᵪ≥h/4π of this interaction.

  Light waves radiate out spherically 4πr² with their interior forming the characteristic of three-dimensional space with the spherical surface forming a probabilistic wave front. Each point ∆E=hf on the wave front forms the potential for a new spherical wave, a photon of energy, a new oscillation or vibration that forms our future. We have to square the radius r² because process is unfolding relative to the surface of the sphere. Therefore, we have the probability wave function Ψ² is squared. The speed of the process is squared c², the speed of light and the charge of the electron is squared e² representing different aspect of the same process. The light photon ∆E=hf and the electron are two sides of the same process in this theory.

The centre of the sphere forms a constant of action relative to the radius square r² and the circumference 2πr. This forms the Planck constant h/2π in mathematics of Quantum Mechanics


Friday 3 May 2024

American Physicist Brian Greene and New Theory on Quantum Mechanics

This theory explains a deeper understanding of ‘time’ with a probabilistic future continuously coming into existence quanta by quanta, moment by moment. We only have particle charactistics in the form of quantized energy when we have the absorption and emission of light waves with each photon electron interaction. The exchange of light photon ∆E=hf energy is continuously transforming potential energy into the kinetic Eₖ=½mv² energy of matter, in the form of electrons, as an uncertain ∆×∆pᵪ≥h/4π probabilistic future unfolds. This process is relative to the atoms of the Periodic Table therefore the Future is relative to our actions. The Planck Constant h/2π is a constant of action within a geometrical spherical 4πr² process that forms the characteristics of 3D space and continuum of time ∆E ∆t ≥ h/2π. With each photon electron interaction, a potential future is emitted as a wave of probability with particle characteristics as the future unfolds. The past at the smallest scale of the process is annihilated in the form of anti-matter annihilation. Because light has momentum and momentum is frame dependent, we can place each individual life form in the centre of their own reference frame in the moment of now. This can give us the concept of ‘the individual mind’ with each one of us having our own personal view of the Universe. American physicist Brian Greene has become known to a wider audience through his books for the general public, The Elegant Universe, Icarus at the Edge of Time, The Fabric of the Cosmos, The Hidden Reality, and related PBS television specials. He also appeared on The Big Bang Theory episode "The Herb Garden Germination", as well as the films Frequency and The Last Mimzy. He is currently a member of the board of sponsors of the Bulletin of the Atomic Scientists. Reference Can Particles be Quantum Entangled Across Time? Original Video: https://www.youtube.com/watch?v=twY2q1F-ciI Brian Randolph Greene (born February 9, 1963) is an American physicist. Greene was a physics professor at Cornell University from 1990–1995, and has been a professor at Columbia University since 1996 and chairman of the World Science Festival since co-founding it in 2008. Greene has worked on mirror symmetry, relating two different Calabi–Yau manifolds (concretely relating the conifold to one of its orbifolds). He also described the flop transition, a mild form of topology change, showing that topology in string theory can change at the conifold point.

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