Abstract

Problem- There are deep unanswered questions about photon emission, specifically how the field structures of the photon emerge from the electron. While this problem cannot be answered from within quantum mechanics, due to its premise that particles are zero dimensional points, other theories of physics have better prospects. Purpose- A conceptual theory is developed for the processes of photon emission and absorption, in a non-local hidden-variable (NLHV) design called the Cordus theory. Approach- Logical inference is used to predict the structures of the discrete fields of the photon and electron under this framework. From this is extracted an explanation of how electron bonding constraints require the electron to emit its excess energy, and how the photon is created and emerges from the electron. Findings- Emission is found to be an escapement mechanism whereby matter particles that are over-prescribed in position can get rid of that energy, and the details of this are explained. The results show excellent qualitative agreement with classical electromagnetic wave theory and quantum mechanics, many conceptual features of which can be recovered. Originality- A novel conceptual theory is developed for the processes of photon emission and absorption. Particularly important here is the proposed causality whereby bonding constraints affect geometric span of the particule, which affects frequency. Hence this constrains the energy that the electron can contain, and explains why the emitted photon has a specific quantum of energy. A second contribution is the proposed differentiation between the discrete fields of the photon and electron. This yields an explanation for the exponential nature of the evanescent field, and recovery of the inverse radius squared relationship for the electro-magneto-gravitational fields. The theory also offers a physical interpretation of the fine structure constant α as a measure of the transmission efficacy of the fabric, i.e. α determines the relationship between the electric constant of the vacuum fabric, and the speed of propagation c through the fabric. There is further novelty in achieving this from the non-local hidden-variable sector of physics. Implications- Quantum mechanics originated with the observation that the movement of electrons between orbitals resulted in emission of photons with discrete quanta of energy. However it does not explain how the transitions occur. The original contribution here is showing that a solution does exist in NLHV physics. Assuming this is valid then the implications are that particles have internal structure and that quantum mechanics is merely a quantitative statistical summary of a deeper physics.

Highlights

  • Our world is full of light and its interactions with matter

  • Implications- Quantum mechanics originated with the observation that the movement of electrons between orbitals resulted in emission of photons with discrete quanta of energy

  • The main points are: (1) external positional constraints cause, via changes to geometric span, constraints on the internal frequency that the electron can take; (2) an independent constraint is that the electron that is bonded to an atom can take only certain discrete frequencies, these being a consequence of the bonding; (3) the electron is required to dispose of any excess energy, which it does by temporarily dumping it into the external three-dimensional space; (4) doing this creates discrete photon discrete force field structures and the associated supporting structures of reactive ends and fibril

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Summary

Introduction

Our world is full of light and its interactions with matter. Yet describing how photons are emitted and absorbed is surprisingly difficult. The mathematical formulations of quantum mechanics (QM) and electromagnetic wave theory are good at quantifying what happens, but not at describing how the photon emerges from the electron at emission, or is absorbed back into it. The how side of the process has received some attention, including near-field electrodynamics (Keller, 2006), field of the emerging photon (Keller, 2000), interaction with the vacuum fields (Alexanian & Bose, 2006), and coherent states (Zavatta, Viciani, & Bellini, 2005). For most purposes, this is enough explanation for empirical work. The ontological questions remain: How does the field structure of the photon emerge from that of the electron? There is a need for theories that better explain the photon emission and absorption processes

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