The Cosmic Black Hole as a Solution of the Relativistic Quantum Mechanical DIRAC Equation

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  •   Wim Vegt

Abstract

For many physicists, Albert Einstein’s Theory of General Relativity is the top of Physics. A whole new concept, based on a flexible Space-Time Continuum. A wonderful New and Original insight in the Origins of Space and Time. But nowadays physics requires more than a fundamental theory about Space and Time.


The Mathematical foundation for a “Quantum Mechanical Model of the Black Hole” is based on a 10-dimensional Space-Time Continuum.  This article has been written in projections of a 10-Dimensional Space-Time Continuum within an easier to understand 4-Dimensional Space-Time Continuum. For that reason, this theory will not start with “Einstein’s famous Field Equations”,  but the start will be at a very fundamental concept in Physics. Isaac Newton’s 3rd law as a fundament in Classical-  and Quantum Mechanics.


To make the theory of the “Quantum Mechanical Model of the Black Hole” as much understandable as possible, this article starts with a short comprehension of the theory.


Keywords: Black Hole, General Relativity, Quantum Field Theory, Quantum Gravity

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How to Cite
Vegt, W. (2022). The Cosmic Black Hole as a Solution of the Relativistic Quantum Mechanical DIRAC Equation. European Journal of Applied Physics, 4(3), 15–29. https://doi.org/10.24018/ejphysics.2022.4.3.172