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Physics Procedia

The Cosmic Ether: Introduction to Subquantum Kinetics

Paul A. LaViolette

Published Jan 1, 2012• 10 citations
Publisher

Abstract

A general overview of the physics and cosmology of subquantum kinetics is presented, together with its more recently developed explanation for quantum entanglement. Subquantum kinetics is shown to be able to account for the superluminal control of the parallel-antiparallel orientation of particle spin mediated through electric potential soliton beam links established between remotely positioned, mutually entangled particles.

DOI
10.1016/j.phpro.2012.08.032

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A general overview of the physics and cosmology of subquantum kinetics is presented, together with its more recently developed explanation for quantum entanglement. Subquantum kinetics is shown to be able to account for the superluminal control of the parallel-antiparallel orientation of particle spin mediated through electric potential soliton beam links established between remotely positioned, mutually entangled particles.
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AbstractThe paper presents an alternative, strictly local physical interpretation of quantum entanglement and the violation of Bell's inequalities, completely eliminating the mathematical artifact of "non-locality". Within the framework of the ether-dynamical paradigm of a discrete massless ether developed by the author, a standard photon is defined as a subquantum chain of closed toroidal corpuscles (Planck particles). Based on a critical review of earlier hypotheses, the authors prove that orthogonally correlated IR photons are born in a non-linear crystal as a result of a direct mechanical interaction: the movement of a laser beam entrains and longitudinally deforms the spirals of the electric field of a stationary nucleon. Forced precession of the fields, caused by their rotation relative to the laser beam, ensures their spatial divergence. Field deformations initially establish the mutual perpendicularity of polarizations until the moment of breakdown and segmentation of the chains. The work restores the principle of close-range action and offers a clear space-time model of sub-substantial processes.
Quantum Entanglement-one of the weirdest and most exciting aspects of quantum mechanics. Two or more particles become entangled in a way that if the state of one of the particles is measured, then instantaneously the state of another particle is determined even if they are far apart from one another. The content of this paper explores the details of quantum entanglement: where it came from, what the basic principles are, what experiments support this notion, and what experiments we use to study entanglement. The trends of the data are laid out and what it signifies. From here, I then move to what effects quantum entanglement will have on quantum computing, cryptography and communication. I will attempt to justify my arguments through thirteen published academic sources prior to 2019.
Statement of the Problem: Smarandache Hypothesis states that there is no speed limit of anything, including light and particles. While the idea is quite simple and based on known hypothesis of quantum mechanics, called Einstein-Podolski-Rosen (EPR) paradox, in reality such a superluminal physics seems still hard to accept by majority of physicists. Here we review some experiments to support superluminal physics and also findings to explain Smarandache Quantum Paradoxes and Quantum Sorites Paradox. We also touch briefly on new experiment on magneton, supporting SubQuantum Kinetic Model of Electron. Aim of this paper: We discuss some experimental results which will likely open new directions of research toward evidence-based physics.Conclusion Significance: Multiexperimental findings assessment allows one to verify conjectures by Florentin Smarandache RNB, namely: Smarandache Hypothesis, Smarandache Quantum Sorites Paradoxes and SubQuantum Kinetic Model of Electron.