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arXiv · 1806.05244

On a scalar field of time and electromagnetism

Abstract

It is possible to describe a universal scalar field of time but not a universal coordinate of time and to attribute its non-geodesic alignment to the electromagnetic phenomena. A very surprising outcome is that not only mass generates gravity, but also electric charge does. Charge is, however, coupled to a non-geodesic vector field and thus is not totally equivalent to inertial mass. Only the entire "Energy-Momentum" tensor has a vanishing divergence. The model can be seen as misalignment of physically accessible events in an observer spacetime and of gravity as a controlling response by volumetric contraction of the observer spacetime in the direction where events bend or accelerate to. This non geodesic acceleration is described by a generalization of the Reeb vector. Misalignment of events can be described by 1, 2, and 3 such vectors. The paper presents a term with 4 vectors but does not discuss its physical meaning. The paper also discusses particle mass ratios and the Fine Structure Constant where added or subtracted area in relation to a disk does not involve a ratio 1/24 but 1/96 due to the physical meaning of the orientation of a space foliation which is perpendicular to a time-like vector and due to the orientation of a plane which is perpendicular to a time-like vector. These two orientations mean that only one side of a 3-dimensional foliation has a physical meaning and only one side of a sub-plane of that foliation has a physical meaning then (1/2)*(1/2)*(1/24_=1/96. Another interpretation of the factor 1/4 is the Bekenstein - Hawking entropy to area constant. An additional coefficient 4/{\pi} describes an acceleration field strength and has a compelling source in mainstream physics. Other two field strength coefficients are 95/96 and a critical value due to an imbalance equation between gravity and anti-gravity ~1.556198537190348396563877031439915299.

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Eytan H. Suchard. 2018-06-13. On a scalar field of time and electromagnetism. https://doi.org/10.1088/1742-6596/845/1/012019

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