Super Principle Relativity Theory – Part #3

After 100 Years of General Relativity Theory its Time for Super Principle Relativity Theory

Abstract

In this Part #3, the “Super Principle Relativity Theory” uses various “Hydrodynamic Field ─ Vacuum Energy Density ─ Frames of Reference”, which are differentiated by the symbol (ψ); to distinguish between: gravitational, electromagnetic, isotropic space-time world line, gravitational sink, gravitational source, electromagnetic sink, and electromagnetic source frames of reference. The “Hydrodynamic Field ─ Frame of Reference” is described mathematically by the Euler-Lagrangian “Hydrodynamic Field Vacuum Energy Density” Gravitation equation. Also, the “Hydrodynamic Field ─ Frame of Reference” is described mathematically by the Einstein – General Relativity Theory “Hydrodynamic Field Vacuum Energy Density” Gravitation equation.

Keywords:  General Relativity, Ricci Curvature, Einstein Field Equation, Euler-Lagrangian Field Theory, Classical Field Theory, Einstein Field Theory, Gravitational Field, Vacuum Energy Density, Hydrodynamic, Gravitation, Black Hole

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Super Principle Relativity Theory – Part #2

After 100 Years of General Relativity Theory its Time for Super Principle Relativity Theory

Abstract

The Super Principle Relativity Theory is a hydrodynamic field theory, which models “Gravitation” and the “Vacuum”, in the conceptual and mathematical framework of a variable density compressible ideal gaseous fluid. In contrast to General Relativity Theory which is a field theory, that models “Gravitation” and the “Vacuum”, in the conceptual and mathematical framework of a fixed density “frictionless incompressible fluid medium” or “incompressible liquid medium”.

This Part #2 sets to prove the compatibility of Super Principle Relativity Theory – Hydrodynamic Gravitation Field theory, with the currently accepted General Relativity Theory – Gravitation Field Theory. This is accomplished by using the mathematical framework established in Part #1, and deriving a Ricci Curvature that is time-like. And deriving the well-established Einstein styled Gravitational Field Equations.

Click to access dOheHcBUic.pdf

Keywords:  General Relativity, Ricci Curvature, Einstein Field Equation, Euler-Lagrangian Field Theory, Classical Field Theory, Einstein Field Theory, Gravitational Field, Vacuum Energy Density, Hydrodynamic, Gravitation

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Super Principle Relativity Theory – Part #1

After 100 Years of General Relativity Theory its Time for Super Principle Relativity Theory

Abstract

The Super Principle Relativity Theory is a hydrodynamic field theory, which models “Gravitation” and the “Vacuum”, in the conceptual and mathematical framework of a variable density compressible ideal gaseous fluid. In contrast to General Relativity Theory which is a field theory, that models “Gravitation” and the “Vacuum”, in the conceptual and mathematical framework of a fixed density “frictionless incompressible fluid medium” or “incompressible liquid medium”. The new theory produces exact solutions to gravitation phenomena, and describes the Euler-Lagrangian Hydrodynamic Energy Density Equation, as a space-time frame of reference; and is mathematically the net sum of space-like and time-like energy density terms. The “Hydrodynamic Field Energy Density Frame of Reference” is used to model the interaction between seven (7) physical phenomena: gravitational, electromagnetic, isotropic space-time world line, gravitational sink, gravitational source, electromagnetic sink, and electromagnetic source energy density frames of reference. The “Hydrodynamic Field Theory” models physical phenomena: solar systems, galaxy rotation, quantum mechanical systems, etc.

Keywords:   General Relativity, Euler-Lagrangian Field Theory, Classical Field Theory, Einstein Field Equation, Gravitational Field, Vacuum Energy Density, Black Hole, Hydrodynamic, Gravitation

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The Physics of Schwarzschild’s Original 1916 Metric Solution and Elimination of the Coordinate Singularity Anomaly

The Physics of Schwarzschild’s Original 1916 Metric Solution and Elimination of the Coordinate Singularity Anomaly

 

 

 

By

Robert Louis Kemp

 

Super Principia Mathematica

The Rage to Master Conceptual & Mathematical Physics

 

www.SuperPrincipia.com

 

www.Blog.Superprincipia.com

 

Flying Car Publishing Company

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Long Beach, CA 90809

   

Abstract

 

 This paper is a mathematical treatise and historical perspective of Karl Schwarzschild’s original 1916 solution and description of a Non-Euclidean Spherically Symmetric Metric equation. In the modern literature of the Schwarzschild Metric equation, it is described as predicting an output of a “Coordinate Singularity” anomaly located at the surface of the Black Hole Event Horizon. However, in Schwarzschild’s original 1916 metric solution there is not a “Coordinate Singularity” located at the Black Hole Event Horizon, but there is an actual quantitative value for space and time, that is predicted there. This paper and work compares the Schwarzschild Spherically Symmetric Metric equation original 1916 results with the results predicted by the modern literature on the Schwarzschild Metric.

 

This work also describes conceptually the physics behind the Gaussian Distance Curvature and Reduction Density equation that Schwarzschild used to eliminate and avoid a “Coordinate Singularity”. This work reveals that Schwarzschild’s original 1916 solution, predicts that the Inertial Mass Volume Density, Escape Velocity, and gravitational field acceleration is reduced at all points in the inhomogeneous gradient gravitational field. This reduced Schwarzschild Gaussian density also reduces the gravitational tangential velocity, and acceleration in the inhomogeneous gradient gravitational field.

PDF – The Physics of Schwarzschild’s Original 1916 Metric Solution and Elimination of the Coordinate Singularity Anomaly

  

Keywords: General Relativity, Einstein Field Equation, Gravitational Field, Coordinate Singularity, Physical Singularity, Gravitation, Black Hole Event Horizon, Spherically Symmetric Metric, Euclidean Geometry, Non-Euclidean Geometry, Minkowski Metric, Euclidean Metric, Schwarzschild Metric

 

 

Contents

·         1.0       Introduction

 

 

·         1.1       Spherically Symmetric Metric – Limits of Integration & Singularities – Schwarzschild Non-Euclidean Metric – “Modern Literature Solution”

 

 

·         1.2       Spherically Symmetric Metric – Limits of Integration & Singularities – Schwarzschild Non-Euclidean Metric – “Original Solution 1916”

 

 

·         1.3       Physics Explanation for the Original 1916 Schwarzschild “Non-Euclidean” Gaussian Curvature Distance (clip_image002) as it relates to the Reduced Volume Mass Density of the Gradient Gravitational Field & the Gaussian Squared Velocity Inertia

 

 

·         1.4       Physics Explanation for the Schwarzschild “Non-Euclidean” Gaussian Curvature Distance (clip_image002) as it relates to the Kepler’s Third Law, Angular Velocity, and the Acceleration of the Gradient Gravitational Field

 

 

·         2.0       Conclusion

 

 

1.   Introduction

 

This work is written to physicists with the aim of pointing out the fact that the “Modern Literature” claims conceptually and mathematically, that the Spherically Symmetric Metric Schwarzschild Metric produces two singularities, one “Physical Singularity” located at the center of the system, and a second “Coordinate Singularity” located at the Black Hole Event Horizon, located at the Schwarzschild Semi-Major Radius, of an inhomogeneous gradient gravitational field.

 

However, in Karl Schwarzschild’s original 1916 paper, he predicts conceptually and mathematically, that the Spherically Symmetric Metric Schwarzschild Metric produces one singularity, the “Physical Singularity” located at the center of the system.

 

In Karl Schwarzschild’s original 1916 paper, he does not predict a second “Coordinate Singularity” located at the Black Hole Event Horizon, like the “Modern Literature” and the physics community claims!

 

Karl Schwarzschild’s original 1916 paper [10]: “About the gravitational field of a mass point according to Einstein’s theory”.

 

The original 1916, Spherically Symmetric Metric Schwarzschild Metric equation produces, one “Physical Singularity” located at the center of the system; and Schwarzschild avoids or eliminates “Coordinate Singularity” located at the Black Hole Event Horizon, located at the Schwarzschild Semi-Major Radius (clip_image004), of an inhomogeneous gradient gravitational field, by using a Gaussian Curvature (clip_image006) Distance Radius.

 

The mainstream physics community at large currently teaches that there is no solution to the “Coordinate Singularity” anomaly located at the Black Hole Event Horizon; and they do not appear to be searching for a solution!

 

The mainstream physics community seems to be content, accepting the fact that, space and time, become unpredictable at the Black Hole Event Horizon. While they fantasize that “Electromagnetic Radiation “Light” cannot escape a Black Hole Event Horizon”. Once again, this fantasy concept that space and time become unpredictable at the Black Hole Event Horizon is not a result of the original solution or prediction, made by the inventor of the metric, Karl Schwarzschild which he published in 1916.

 

This fact was first pointed out on a website written by Stephen J Crothers [4], where he states:

 

“The so-called “Schwarzschild” solution is not due to Karl Schwarzschild at all. The experts have either not read Schwarzschild’s 1916 memoir or have otherwise ignored it.”

 

Published in Schwarzschild’s original 1916 solution, there is not a “Coordinate Singularity” located at the Black Hole Event Horizon, but there is an actual quantitative value for space and time, that is predicted there.

 

This paper and work compares the Schwarzschild Spherically Symmetric Metric equation original 1916 results with the results predicted by the modern literature on the Schwarzschild Metric.

 

This work proves that eliminating the “Coordinate Singularity” allows for smooth prediction of a “maximally extended” space-time in the form of a “geodesic” world “line element” (clip_image008), as a real curving or warping of physical space, space-time, or a gradient gravitational field, that is spherically symmetric, surrounding a condensed matter, mass (clip_image010), or energy source, even at the Black Hole Event Horizon.

 

The Schwarzschild original 1916, metric equation and coordinates are chosen because they cover the entire maximally extended Riemann manifold, without the problem of a “Coordinate Singularity” located at the Black Hole Event Horizon; and which satisfies the “Geodesic Incompleteness” and “Null Geodesic Completeness” axioms.

 

This work also describes conceptually the physics behind the Gaussian Distance Curvature and Reduction Density equation that Schwarzschild used to eliminate and avoid a “Coordinate Singularity”.

 

This work reveals that Schwarzschild’s original 1916 solution, predicts that the Inertial Mass Volume Density is reduced at all points in the inhomogeneous gradient gravitational field. This reduced density predicted by Schwarzschild’s original 1916 solution, also reduces the gravitational tangential velocity, and gravitational acceleration throughout the entirety of the inhomogeneous gradient gravitational field.

 

Furthermore, the “Spherically Symmetric Metric” (clip_image012) can describe the geometry of space, space-time or a gravitational field, of or surrounding the: universe, stars, planets, galaxies, quasars, electrons, protons, neutrons, atoms, molecules, photons, etc…

 

 

 

1.1.       Spherically Symmetric Metric – Limits of Integration & Singularities – Schwarzschild Non-Euclidean Metric “Modern Literature Solution”

 

In General Relativity, the Non-Euclidean Spherically SymmetricSchwarzschild “Mass Dependent” Metric (clip_image012) describes the geodesic, curving, or warping of a space, space-time, or inhomogeneous gradient gravitational field, in the presence of a net inertial mass/matter (clip_image015) source; with a Black Hole Event Horizon, and the “Physical Singularity” at the core source of the isolated and conserved gravitational field.

 

Spherically Symmetric – Schwarzschild Metric  

                                                                                                                                                                                                                                                  1.1 

clip_image017 ® clip_image019

 

 

With a metric signature of (-+++) being used. In all of the “modern literature” written on General Relativity, the Schwarzschild Metric (clip_image012) yields predictable results “only” in the “exterior region” of the Black Hole Event Horizon source of the gravity field. The predictable results start with any radius relative to center of the gradient gravitational field that is greater than the Schwarzschild Radius (clip_image021), and into infinite distances (clip_image023), of the gradient field.

 

clip_image025

The Exterior solution corresponds to the space outside of the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image027).

 

 

clip_image029

 

 

The Interior solution corresponds to the space within or inside the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image027).

 

 

clip_image031

 

 

The “modern literature” written on General Relativity, describes that the Schwarzschild Metric (clip_image033) predicts that a “Black Hole” has “two (2) Singularities” in the metric of a localized inhomogeneous gravitational field:

 

There is one “Physical Singularity” that is an infinitely “small” number located at zero radius (clip_image035) of the gradient gravitational field. (clip_image037).

 

And a second “Coordinate Singularity” that is an infinitely “large” number located at the Black Hole Event Horizon, Schwarzschild (clip_image039) Radius of the inhomogeneous gradient gravitational field. (clip_image037).

 

 

clip_image041        ;        clip_image043

clip_image045

 

clip_image047

 

 

The Schwarzschild Metric (clip_image033) predicts the “Physical Singularity” located at zero radius, is “extreme curvature” as the geodesic approaches an infinitely small value, (clip_image050), as the radius approaches zero (clip_image052). The “Physical Singularity” is a natural artifact for any Non-Euclidean metric.

 

The “Coordinate Singularity” is an anomaly that is predicted by the modern literature, at the surface of the Black Hole Event Horizon, and is an infinitely large value, (clip_image050), with “extreme curvature” of the geodesic as the radius approaches Schwarzschild Radius (clip_image055).  This value is an anomaly, and is not a natural artifact for any Non-Euclidean metric.

 

Furthermore,the Schwarzschild Metric (clip_image033) predicts, that as the distance relative to a spherically symmetric center, approaches infinity or an infinite distance (clip_image057) away from the “physical singularity”, center, where there is maximum or extreme curvature, the Non-Euclidean“Curved Space-time” becomes Minkowski “Flat Space-time”. This is also known as Non-Euclidean “Geodesic Incompleteness”; of a diverging gravity field.

 

Pseudo-Euclidean – Minkowski Metric 

                                                                                                                                                                                                                                                  1.2 

clip_image059      ® clip_image019

 

 

Space-time – Square of the Speed of Light

                                                                                                                                                                                                                                                  1.3 

clip_image061     ® clip_image063

 

 

Space-time – Square of the Speed of Space (Vacuum Energy Velocity)

                                                                                                                                                                                                                                                  1.4 

clip_image065     ® clip_image063

clip_image067

 

 

New Mathematical Formalism – Generalized Spherically Symmetric Metric

                                                                                                                                                                                                                                                  1.5 

  clip_image069   ® clip_image019

 

 

 

“New” Schwarzschild Metric “Curvature” Coefficient ─ (clip_image072)

                                                                                                                                                                                                                                                  1.6 

 clip_image074    ® clip_image076

New Mathematical Formalism – Generalized Spherically Symmetric Schwarzschild (Non-Euclidean) Metric

                                                                                                                                                                                                                                                  1.7 

clip_image078® clip_image019

 

clip_image069

 

clip_image080

Below is a plot of the Schwarzschild Metric (clip_image033)

 

(clip_image082)                 Then              (clip_image084)  

 

 

And clip_image086

 

image

 

 

1.2.       Spherically Symmetric Metric – Limits of Integration & Singularities – Schwarzschild Non-Euclidean Metric “Original Solution 1916”

 

Next, let’s consider Karl Schwarzschild’s original 1916 metric solution for the Non-Euclidean Spherically SymmetricMetric (clip_image012) equation.

 

In Karl Schwarzschild’s original paper in (1916), he does not have two (2) “Singularities” in his original Metric (clip_image033) equation; like that which is described in “modern literature” claims. Schwarzschild, has only the one “Physical Singularity” located at zero radius (clip_image035) of the gravitational field; described in his original solution 1916.

 

I believe that this one “Physical Singularity” result is a natural artifact of the “Non-Euclidean” geometry, which is not a feature of the “Euclidean” geometry.

 

The original form of the Schwarzschild Metric (clip_image033) equation, as presented by Schwarzschild in 1916; below with a metric signature of (-+++).

 

Schwarzschild Spherically Symmetric Metric – in “Original 1916 Form” 

                                                                                                                                                                                                                                                  1.8 

clip_image090® clip_image019

 

 

Schwarzschild Gaussian Curvature Distance (clip_image002) – in “Original 1916 Form” 

                                                                                                                                                                                                                                                  1.9 

clip_image093      ® clip_image095

 

The Schwarzschild Metric (clip_image012) radial limits which extend from the center of the gradient gravitational field (clip_image097), and into infinite (clip_image023) distances, is given below.

 

clip_image041        ;        clip_image043

 

 

The radial distance given in Schwarzschild’s original form, is given by the Gaussian Curvature Radius given by the symbol (clip_image002) and not the Semi-Major Radius given by the symbol (clip_image101); which describes a radial distance relative to the center of the gradient gravitational field.

 

Karl Schwarzschild in his paper claimed that this Gaussian curvature distance (clip_image002), is not an actual physical measureable distance, but is an artifact of mathematics of the geodesics paths in Non-Euclidean curvature and geometry.

 

It is a very notable difference in the way that modern mainstream literature presents the Schwarzschild Spherically Symmetric Metric and the way the Karl Schwarzschild presented his original solution in 1916.

 

Using the distance (clip_image002) of Gaussian curvature, given in Schwarzschild’s original work, eliminates the “Coordinate Singularity” at the Black Hole Event Horizon.

 

The main difference is that the modern mainstream physics literature claims that there is a “Coordinate Singularity” located at the surface of the Black Hole Event Horizon. And because of this “Coordinate Singularity” space and time become unpredictable at the Black Hole Event Horizon.

 

In Karl Schwarzschild original 1916 metric solution, there is not a “Coordinate Singularity” located at the surface of the Black Hole Event Horizon; but there is a quantitative value for space, distance, and time, is measured at the Black Hole Event Horizon.

 

Next it will be presented, a new form of Schwarzschild’s original 1916 metric coordinate solution, and metric equation.

 

Starting with Schwarzschild Gaussian Curvature Distance (clip_image002) – in “Original 1916 Form”, from the equation above, and taking the differential yields the following.

                                                                                                                                                                                                                                               1.10 

clip_image103        ® clip_image105

 

Schwarzschild Gaussian Curvature Differential Distance (clip_image107) – as a function of Differential Semi-Major Distance Space (clip_image109)

                                                                                                                                                                                                                                               1.11 

clip_image111      ®  clip_image019

 

 

Next, substituting the above differential equation into the original form of the Schwarzschild Spherically Symmetric Metric (clip_image033) differential equation, as presented by Schwarzschild in 1916. This will be done, so that the Schwarzschild original 1916 metric, is in a form that is similar to the modern literature form of the metric as shown below.

 

Schwarzschild Spherically Symmetric Metric – in “Original 1916 Form” function of Differential Semi-Major Distance Space (clip_image109), time (clip_image113), and Manifold/Surface Map Angle (clip_image115)

                                                                                                                                                                                                                                               1.12 

 

clip_image117      ®  clip_image019clip_image119

 

 

  

 

The above equation is a new mathematical representation of the Karl Schwarzschild’s original 1916 solution; with a metric signature of (-+++) being used.

 

This result presented in Schwarzschild’s original paper predicts that the Schwarzschild Metric (clip_image033) should only have “One (1) Physical Singularity” in the metric located at the center of the gravitational field (clip_image121).

 

Whereas, the modern literature which describes the Schwarzschild Metric in their writings, claims that there is a second “Coordinate Singularity” at the Black Hole Event Horizon (clip_image123).

 

It is obvious from the above equation, that Karl Schwarzschild’s original 1916 solution does not produce a “Coordinate Singularity” at the Black Hole Event Horizon (clip_image125).

 

Therefore using Schwarzschild’s original 1916 solution, the “Coordinate Singularity” anomaly, located at the Black Hole Event Horizon and Schwarzschild Radius (clip_image125), as predicted by modern literature is eliminated; as demonstrated in the chart and graphically below.

 

Once again, in Schwarzschild’s original solution, there is only one “Physical Singularity” located at zero radius (clip_image035) of the gravitational field.

 

The Schwarzschild Spherically Symmetric Metric (clip_image012) therefore predicts the following.

 

clip_image041        ;        clip_image043

 

clip_image127

 

The Schwarzschild Original 1916 Metric (clip_image033) predicts the “Physical Singularity” located at zero radius, is “extreme curvature” as the geodesic approaches an infinitely large value, (clip_image181), as the radius approaches zero (clip_image052). The “Physical Singularity” is a natural artifact for any Non-Euclidean metric.

 

Therefore using Schwarzschild’s original 1916 solution, the“Coordinate Singularity” is eliminated where the radius is equal to the Schwarzschild Radius (clip_image129); and a quantitative value for space, distance, and time, is measured at the Black Hole Event Horizon.

 

Furthermore,the Schwarzschild Metric (clip_image033) predicts, that as the distance relative to a spherically symmetric center, approaches infinity or an infinite distance (clip_image057) away from the “physical singularity”, center, where there is maximum or extreme curvature, the Non-Euclidean“Curved Space-time” becomes Minkowski “Flat Space-time”. This is also known as Non-Euclidean “Geodesic Incompleteness”; of a diverging gravity field.

 

Pseudo-Euclidean – Minkowski Metric 

                                                                                                                                                                                                                                               1.13 

 

clip_image059      ® clip_image019

 

 

Space-time – Square of the Speed of Light

                                                                                                                                                                                                                                               1.14 

clip_image061     ® clip_image063

 

 

Space-time – Square of the Speed of Space (Vacuum Energy Velocity)

                                                                                                                                                                                                                                               1.15 

clip_image065     ® clip_image063

clip_image067

 

 

New Generalized Mathematical Formalism Spherically Symmetric Metric – Using the Schwarzschild Original 1916 Solution

                                                                                                                                                                                                                                               1.16 

 

clip_image111

clip_image132  ® clip_image019

 

 

“New” Schwarzschild 1916 Metric “Curvature” Coefficient ─ (clip_image134)

                                                                                                                                                                                                                                               1.17 

clip_image136

® clip_image076

 

 

New Generalized Spherically Symmetric Schwarzschild 1916 (Non-Euclidean) Metric

                                                                                                                                                                                                                                               1.18 

clip_image138

clip_image132® clip_image019

 

 

New Generalized Mathematical Formalism Spherically Symmetric Metric – Using the Schwarzschild Original 1916 Solution

                                                                                                                                                                                                                                               1.19 

 

clip_image111   ® clip_image019

clip_image140  ® clip_image019

 

 

“New” Schwarzschild 1916 Metric “Curvature” Coefficient ─ (clip_image134)

                                                                                                                                                                                                                                               1.20 

 

 clip_image142   

® clip_image076

 

 

New Generalized Spherically Symmetric Schwarzschild 1916 (Non-Euclidean) Metric

                                                                                                                                                                                                                                               1.21 

clip_image144

clip_image140® clip_image019

 

 

clip_image145

 

 

Below is a plot of the Schwarzschild Metric (clip_image033)

 

(clip_image082)                 Then              (clip_image084)  

 

And clip_image086

 

The Schwarzschild Spherically Symmetric Original 1916 Metric (clip_image012), described as

 

image

 

The Schwarzschild Spherically Symmetric Original 1916 Metric (clip_image012), compared to the modern literature Schwarzschild Spherically Symmetric Metric (clip_image012), is shown in graph below.

image

image

 

Non-Euclidean Spherically Symmetric Metric

Modern Literature & Original 1916 Solution“Schwarzschild” Metric

 “Geodesic Incompleteness” of a Diverging Gravitational Field

Singularities and Infinitely Large Spaces Listed

 

clip_image041        ;        clip_image043

 

Non Euclidean “Schwarzschild” Metric

(Curved Space-time)

(clip_image154)

Spherically Symmetric Metric

(clip_image012)

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image052)

&

(clip_image157)

Spherically Symmetric Metric

(clip_image012)

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image055)

&

(clip_image129)

Spherically Symmetric Metric

(clip_image012)

Spherically Symmetric

Semi-Major Radius (Distance/Space)

 

(clip_image160)

&

(clip_image162)

Schwarzschild Metric

(Curved Space-time)

(clip_image154)

Modern Literature

clip_image164

clip_image166

clip_image168

clip_image170

(Infinitely Small)

Physical Singularity

clip_image172

(Infinitely Large)

Coordinate Singularity

clip_image172

(Infinitely Large)

Flat Space-Time

Schwarzschild Metric

(Curved Space-time)

(clip_image154)

Original 1916 Solution

clip_image164

clip_image174

clip_image175

clip_image177

(Infinitely Large)

Physical Singularity

clip_image179

(Finite Value)

clip_image172

(Infinitely Large)

Flat Space-Time

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

 

 

 

The Schwarzschild Spherically Symmetric Original 1916 Metric (clip_image012), eliminates the “Coordinate Singularity” located at the Black Hole Event Horizon (clip_image125), as compared to the modern literature Schwarzschild Spherically Symmetric Metric (clip_image012).

 

This mathematical form, presented in Schwarzschild’s original 1916 paper where he gives a “One (1) Singularity” solution, is much different from what is currently written, accepted, and taught in literature with the “Two (2) Singularities” solution.

 

In the author’s opinion, the original solution proposed by Karl Schwarzschild’s original paper in 1916, solves the “Coordinate Singularity” anomaly at the Black Hole Event Horizon, but is not an accurate description of nature.

 

In the author’s opinion, the most accurate “Non-Euclidean” geometric metric description, of the contracting and curving of space, space-time, or a gravitational field in the presence of mater, would behave Euclidean as the radius approaches zero (clip_image052).

 

In Karl Schwarzschild’s original 1916 solution, as the spherically symmetric radius approaches zero (clip_image052), the metric is approaching an infinitely large number (clip_image181), when it should be approaching an infinitely small number (clip_image183).

 

It is assumed by many, who read literature on the original works of Schwarzschild, that the Gaussian Curvature Distance (clip_image002), as given by Schwarzschild original 1916 solution, describes as a radial distance, which originates from a source at the center of the gravitational field; it does not!

 

The Gaussian Curvature Distance (clip_image185) is not true radial distance, but is related to the Gaussian curvature and density (clip_image187) of a spherically symmetric geodesic surface, in a localized region of gradient gravitational field, related to the inertial mass volume density (clip_image189) of the gradient gravitational field, and the Black Hole Event Horizon inertial mass volume density (clip_image191); of the space, space-time, or a gravitational field.

 

Therefore Schwarzschild’s original 1916 solution predicts that the Gaussian Curvature Density (clip_image187) is a reduced Inertial Mass Volume Density (clip_image189), spread throughout the entirety of the inhomogeneous gradient gravitational field, surrounding a Net Inertial Mass (clip_image010), or energy source; given by the following.

Gaussian Density of Non-Euclidean Curvature of Gradient Gravity Field

                                                                                                                                                                                                                                               1.22 

clip_image195       ® clip_image197

clip_image199

 

 

Likewise, Schwarzschild’s original 1916 solution predicts that located at the Black Hole Event Horizon (clip_image125), the Gaussian Curvature Density(clip_image202) is equal to one half the Black Hole Event Horizon inertial mass volume density, of the space, space-time, or a gravitational field

 

Gaussian Density of Non-Euclidean Curvature of Black Hole Event Horizon

                                                                                                                                                                                                                                               1.23 

clip_image204       ® clip_image197

 

 

Inertial Volume Mass Density – Black Hole Event Horizon

                                                                                                                                                                                                                                               1.24 

clip_image206 

 

 

1.3.       Physics Explanation for the Original 1916 Schwarzschild “Non-Euclidean” Gaussian Curvature Distance (clip_image002) as it relates to the Reduced Volume Mass Density of the Gradient Gravitational Field & the Gaussian Squared Velocity Inertia

 

Now let’s look at the Gaussian Curvature Distance (clip_image002) predicted bySchwarzschild in his “Original 1916 paper. I will extend this concept to fit the concept of a Reduced Volume Mass Density and the Kepler’s Laws of Motion.

This is not a concept that Karl Schwarzschild investigated, but here you will see that this concept can be extended in the following.

                                                                                                                                                                                                                                               1.25 

clip_image208      ® clip_image095

 

The Net Inertial “Volume” Mass Density(clip_image210), of the “Black Hole Event Horizon” is a fixed local constant value, of the “inhomogeneous” gradient gravitational field, and is defined as the Net Inertial Mass (clip_image010), divided by the “Black Hole Event Horizon” Volume(clip_image213) of the gradient gravitational field.

 

Inertial Volume Mass Density – Black Hole Event Horizon

                                                                                                                                                                                                                                               1.26 

clip_image206

The Net Inertial “Volume” Mass Density(clip_image216), of the “Inhomogeneous” gradient gravitational field, is defined as the Net Inertial Mass (clip_image010), divided by an infinite series of Spherical Volume (clip_image219), of gradient energy potentials of the inhomogeneous gradient gravitational field.

 

Inertial Volume Mass Density – Inhomogeneous Gradient Gravitational Field

                                                                                                                                                                                                                                               1.27 

clip_image221

image

 

Now, let’s consider the Schwarzschild Gaussian curvature distance (clip_image002) in a Non-Euclidean space, space-time, or gradient gravitational field, and substituting the Inertial Mass Volume density terms; and deriving the Gaussian Curvature Inertial Mass Volume Density (clip_image187), yields:

                                                                                                                                                                                                                                               1.28 

clip_image227       ® clip_image095

 

clip_image229

Gaussian Density of Non-Euclidean Curvature of Gradient Gravity Field

                                                                                                                                                                                                                                               1.29 

clip_image231       ® clip_image197

 

clip_image199

 

The Gaussian “Non-Euclidean” Curvature Density (clip_image234), predicted by Schwarzschild Gaussian curvature (clip_image002) results in mass curving or warping space, predicts that at any location in the space, space-time, or gradient gravitational field, the mass density of that gradient is slightly “less dense” than would be, the normal mass volume density at that location (clip_image236).

 

Now, let’s introduce a new concept called the Gaussian curvature squared velocity “inertial potential” (clip_image238) in a Non-Euclidean Space, which is achieved by starting with the Gaussian curvature distance (clip_image002), and substituting the density equations, and solving for the squared velocity inertia:

                                                                                                                                                                                                                                               1.30 

clip_image208       ® clip_image095

 

 

The Schwarzschild Gaussian curvature distance (clip_image002) in a Non-Euclidean Space and substituting the density equations, yields:

                                                                                                                                                                                                                                               1.31 

clip_image241     ® clip_image095

clip_image243

 

Next, substituting the Gravitational Tangential Squared Velocity Inertia of the gravitational field:

                                                                                                                                                                                                                                               1.32 

 

clip_image245    ® clip_image063

 

 

Gaussian Squared Velocity Inertia (clip_image238) Potential of Non-Euclidean Curvature of Gradient Gravity Field (clip_image249)

                                                                                                                                                                                                                                               1.33 

clip_image251       ® clip_image063

 

 

 

clip_image253

 

 

 

clip_image255

 

 

The Gaussian Squared Velocity Inertial Potential (clip_image257), is predicted when the Schwarzschild Gaussian curvature distance (clip_image002) in a Non-Euclidean space, as a result of mass curving or warping space, predicts that at any location in the space, space-time, or gradient gravitational field, the squared velocity inertia of that gradient gravity field is slightly “smaller”  or “slower” than would be, the normal Gravitational Tangential Squared Velocity Inertia of the gravitational field (clip_image259) in that location.

 

 

 

1.4.       Physics Explanation for the Schwarzschild “Non-Euclidean” Gaussian Curvature Distance (clip_image002) as it relates to the Kepler’s Third Law, Angular Velocity, and the Acceleration of the Gradient Gravitational Field

 

Now, let’s consider Kepler’s Third Law, in consideration with the Schwarzschild Gaussian Curvature distance (clip_image002).

                                                                                                                                                                                                                                               1.34 

clip_image261     ® clip_image095

Evolutionary Mass Attraction Rate – Kepler’s Third Law

                                                                                                                                                                                                                                               1.35 

 

clip_image264

clip_image266

Where the Black Hole Orbital Period (clip_image268) is given by

                                                                                                                                                                                                                                               1.36 

clip_image270    ® clip_image272

 

Where the Gradient Gravitational Field Orbital Period (clip_image274) is given by

                                                                                                                                                                                                                                               1.37 

clip_image276     ® clip_image272

 

 

Now, let’s consider Kepler’s Third Law, and rewrite the Schwarzschild Gaussian Curvature distance (clip_image002) to show that it describes the volume of space, space-time, or gravitational field, due to the presence of mass with a black hole event horizon at the center of the gravitational field.

 

The “Gaussian Total Volume” equation below is related to the Schwarzschild Gaussian Curvature distance (clip_image002), and describes a volume of “Non-Euclidean” curved or warped space, due to the presence of mass with a black hole event horizon at the center of a gradient gravitational field:

                                                                                                                                                                                                                                               1.38 

clip_image278       ® clip_image280

clip_image282

clip_image284

image

 

The above “Gaussian Total Volume” (clip_image288) equation means that due to the presence of mass, with a black hole event horizon at the center of a gradient gravitational field, the total volume is the net sum of the volume (clip_image290) of any one of the infinite shells of the spherical gradient gravitational field, and sum the gravitational field Black Hole Event Horizon Volume (clip_image292).

 

Next, substituting Kepler’s Third Law equation, into The “Gaussian Volume” equation above, yields a cube of the Gaussian distance equation:

                                                                                                                                                                                                                                               1.39 

clip_image294        ® clip_image280

 

 

clip_image296

 

clip_image298

 

Next, from the equation above, we derive, a “Gaussian Angular Velocity” which describes that the gravitational angular velocity in a gravitational field potential, is “slightly” reduced or “slowed down” in rate or motion, due to the Non-Euclidean curved, space, space-time, or gravitational field.

                                                                                                                                                                                                                                               1.40 

clip_image300     ® clip_image302

 

 

 

 

clip_image304

 

 

 

clip_image306       ® clip_image302

 

 

Next, substituting the Inhomogeneous Gradient Gravitational Acceleration of the gravitational field (clip_image308):

                                                                                                                                                                                                                                                  1.1 

clip_image310    ® clip_image312

 

 

clip_image314    ® clip_image316

 

 

 

Likewise, using the Schwarzschild Gaussian Curvature distance (clip_image002) equation, we derive, a “Gaussian Gravitational Field Attraction Acceleration” (clip_image318) which describes that the gravitational field attraction acceleration in a gravitational field potential, is “slightly” reduced in the attraction rate, due to the Non-Euclidean curved, space, space-time, or gravitational field.

                                                                                                                                                                                                                                                  1.2 

 

clip_image320     ® clip_image312

 

 

 

clip_image322      ® clip_image312

 

 

clip_image324

 

clip_image326

 

 

 

The above spherically symmetric “Non-Euclidean” inhomogeneous, gradient gravitational field, space, or space-time equations are the result of using the original solution of the Schwarzschild Gaussian Curvature distance (clip_image002) predicted in 1916.

 

 

 

2.   Conclusion

 

 

The mainstream physics community at large currently teaches that there is no solution to the “Coordinate Singularity” anomaly of the Schwarzschild Spherically Symmetric Metric, located at the Black Hole Event Horizon and does not appear to be searching for a solution!

 

The mainstream physics community seems to be content, accepting the fact that, space and time, become unpredictable at the Black Hole Event Horizon; although the inventor of the metric Schwarzschild, never described unpredictability at the Black Hole Event Horizon surface.

 

Published in Schwarzschild’s original 1916 metric solution, there is not a “Coordinate Singularity” located at the Black Hole Event Horizon, but there is an actual quantitative value for space and time, that is predicted there.

 

This paper and work compared the Schwarzschild Spherically Symmetric Metric equation original 1916 results with the results predicted by the modern literature on the Schwarzschild Metric.

 

This work proved that eliminating by the “Coordinate Singularity” anomaly this allows for smooth prediction of a maximally extended “geodesic” world “line element” (clip_image008), which describes a real curving or warping of physical space, space-time, or a gradient gravitational field, that is spherically symmetric, surrounding a condensed matter, mass (clip_image010), or energy source, even at the Black Hole Event Horizon.

 

This work demonstrated that the Schwarzschild original 1916, metric equation and coordinates are a good choice for a metric system, because, they are able to cover the entire extended Schwarzschild manifold, without the problem of a “Coordinate Singularity” located at the Black Hole Event Horizon.

 

This work also described conceptually the physics behind the Gaussian Distance Curvature and Reduction Density equation that Schwarzschild used to eliminate and avoid a “Coordinate Singularity”.

 

This work revealed that Schwarzschild’s original 1916 metric solution, predicts that the Inertial Mass Volume Density is reduced at all points in the inhomogeneous gradient gravitational field.

 

This reduced density predicted by Schwarzschild’s original 1916 solution, also reduces the gravitational tangential velocity, and acceleration throughout the entirety of the inhomogeneous gradient gravitational field.

 

The author does not agree that these gravitational field relations predicted by Schwarzschild Gaussian Curvature distance (clip_image002) predicted in 1916, are actual physical results. The predictions made by these gravitational field relations would have to be measured, to be validated.

 

I only did the physics here, to show that Karl Schwarzschild’s original solution is not trivial, but yields some interesting physics. And so that the physics community will stop propagating the invalid physics that a “Coordinate Singularity”, located at the Black Hole Event Horizon, has to be true in nature. When in fact, the “Coordinate Singularity”, is a mathematical anomaly, which can be resolved with proper mathematical treatment.

 

It turns out that there can be many different solutions and mathematical forms for describing the radial distance (clip_image101) as measured from the center of the gradient gravitational field, of a Spherically Symmetric Schwarzschild “Non-Euclidean” Metric. The original form of the Schwarzschild Metric (clip_image033) equation, as presented by Schwarzschild in 1916; below.

 

Schwarzschild Metric – in “Original 1916 Form”  

                                                                                                                                                                                                                                                  1.3 

clip_image329® clip_image019

 

 

 

Schwarzschild Gaussian Curvature distance (clip_image002)

                                                                                                                                                                                                                                                  1.4 

clip_image331    ® clip_image095

 

clip_image041

 

Schwarzschild Gaussian Curvature Differential distance (clip_image107)

                                                                                                                                                                                                                                                  1.5 

clip_image335     ® clip_image019

 

 

In the author’s opinion, the original solution proposed by Karl Schwarzschild’s original paper in 1916, solves the “Coordinate Singularity” anomaly at the Black Hole Event Horizon, but is not an accurate description of nature.

 

In the author’s opinion, the most accurate “Non-Euclidean” geometric metric description, of the contracting and curving of space, space-time, or a gravitational field in the presence of condensed mass, matter or energy, would behave Euclidean, as the radius approaches zero (clip_image052), the metric should be approaching an infinitely small number ( clip_image183)!

 

In Karl Schwarzschild’s original 1916 solution, as the spherically symmetric radius approaches zero (clip_image052), the metric is approaching an infinitely large number (clip_image181), when it should be approaching an infinitely small number (clip_image183)!

 

This paper eliminates the need for all of the weird physics that is predicted by current mainstream physics, that takes place at the surface of Black Hole Event Horizon, such as light not being able to escape the black hole, time becoming infinite, and spaghettification of anyone crossing the event horizon; all of these concepts are eliminated using the Schwarzschild Gaussian Curvature distance (clip_image002) employed by Karl Schwarzschild’s original 1916 metric solution.

 

Below are the topics that were discussed in this paper:

 

 

·         1.1       Spherically Symmetric Metric – Limits of Integration & Singularities – Schwarzschild Non-Euclidean Metric – “Modern Literature Solution”

 

 

·         1.2       Spherically Symmetric Metric – Limits of Integration & Singularities – Schwarzschild Non-Euclidean Metric – “Original Solution 1916”

 

 

·         1.3       Physics Explanation for the Original 1916 Schwarzschild “Non-Euclidean” Gaussian Curvature Distance (clip_image002) as it relates to the Reduced Volume Mass Density of the Gradient Gravitational Field & the Gaussian Squared Velocity Inertia

 

 

·         1.4       Physics Explanation for the Schwarzschild “Non-Euclidean” Gaussian Curvature Distance (clip_image002) as it relates to the Kepler’s Third Law, Angular Velocity, and the Acceleration of the Gradient Gravitational Field

References

 

 

[1]        Physical Acceptability of Isolated, Static, Spherically Symmetric, Perfect Fluid Solutions of Einstein’s Equations, M.S.R. Delgaty and Kayll Lake1, Department of Physics, Queen’s University, Kingston Ontario, Canada K7L 3N6 (Dated: Septem 1998): http://arxiv.org/pdf/gr-qc/9809013v1.pdf

 

 

[2]        Generating perfect fluid spheres in general relativity, Petarpa Boonserm, Matt Visser, and Silke Weinfurtner, School of Mathematics, Statistics, and Computer Science, Victoria University of Wellington,PO Box 600, Wellington, New Zealand (Dated: March 2005 – February 6, 2008): http://arxiv.org/pdf/gr-qc/0503007v1.pdf(Pages: 13 – 16)

 

[3]        Karl Friedrich Gauss, General Investigations of Curved Surfaces of 1827 and 1825, The Project Gutenberg EBook of General Investigations of Curved Surfaces of 1827 and 1825, by Karl Friedrich Gauss: http://www.gutenberg.org/files/36856/36856-pdf.pdf

 

[4]        Stephen J Crothers; http://www.sjcrothers.plasmaresources.com/

 

[5]        Gauss Law – Theorema Egregium:

            http://en.wikipedia.org/wiki/Theorema_Egregium

[6]        List of Differential Geometry Topics (Wikipedia):

            http://en.wikipedia.org/wiki/List_of_differential_geometry_topics

 

 

[7]        D.F. Lawden. Introduction to Tensor Calculus, Relativity and Cosmology; Dover Publications; 3 edition (January 27, 2003), ISBN 978-0486425405 pp. 6-10

[8]        Minkowski, Hermann (1907/8), “Die Grundgleichungen für die elektromagnetischen Vorgänge in bewegten Körpern“, Nachrichten von der Gesellschaft der Wissenschaften zu Göttingen, Mathematisch-Physikalische Klasse: 53–111 *** Wikisource translation: The Fundamental Equations for Electromagnetic Processes in Moving Bodies.

[9]        Einstein’s Paper: “Explanation of the Perihelion Motion of Mercury from General Relativity Theory”; Anatoli Andrei Vankov; IPPE, Obninsk, Russia; Bethany College, KS, USA:

 

 

 

[10]      Schwarzschild, K. (1916). “About the gravitational field of a mass point according to Einstein’s theory”: text of the original paper, in Wikisource:

 

 

[11]      Schwarzschild Geodesics:

            http://en.wikipedia.org/wiki/Schwarzschild_geodesics

 

 

[12]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics – The General Theory of Relativity.” ISBN 978-0-9841518-2-0, Flying Car Publishing Company, July 2010, pp. 20-21.

 

 

[13]      Inertial-Mass-Vortex-Gravitation-Theory-Continued-Part-3, Robert Louis Kemp (2011). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics, Flying Car Publishing Company

           

 

 

[14]      Total-Mechanical-Energy-Conservation-Escape-Velocity-Binding-Energy-Einstein-Field-Equation, Robert Louis Kemp (2012). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

 

[15]      A-Theory-Of-Gravity-For-The-21st-Century-The-Gravitational-Force-And-Potential-Energy-In-Consideration-With-Special-Relativity-General-Relativity, Robert Louis Kemp (2012). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

[16]      Newtonian-Self-Gravitational-Force-Video-Lecture, Robert Louis Kemp (2012). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

 

[17]      Conditions-For-The-Absence-And-Presence-Of-Matter-In-General-Relativity-Gr-Einstein-Field-Equations-Efes, Robert Louis Kemp (2012). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

  

[18]      What-Are-The-Mathematical-And-Physical-Concepts-Of-Flat-Euclidean-And-Curved-Non-Euclidean-Gravitational-Fields, Robert Louis Kemp (2013). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

[19]      The-Perfect-Fluid-Vacuum-Unified-Gravitation-Vortex-Model-And-Non-Euclidean-Spherically-Symmetric-Metrics, Robert Louis Kemp (2013). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

 

[20]      Algorithm For Describing Spherically-Symmetric Metrics Of A Gravitational Field – Using-Space-Time-Angle-Metric-Components-Metric-Coefficients, Robert Louis Kemp (2013). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

 

 

[21]      What is the Cosmic Censorship Hypothesis? What are Black Hole Physical and Naked Singularities?, Robert Louis Kemp (2013). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

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What is the Cosmic Censorship Hypothesis? What are Black Hole Physical and Naked Singularities?

What is the Cosmic Censorship Hypothesis?

What are Black Hole Physical and Naked Singularities?

 

By

Robert Louis Kemp

 

Super Principia Mathematica

The Rage to Master Conceptual & Mathematical Physics

 

www.SuperPrincipia.com

 

www.Blog.Superprincipia.com

  

Flying Car Publishing Company

P.O Box 91861

Long Beach, CA 90809

 

Abstract

 

A question that the physics community is asking today, is, “What is a Singularity?”, and “Are Singularities Detectable and Measurable?” This work, will describe five (5) different types or classifications of “Singularities” in nature: the Inverse Distance Power Law Singularity, the Physical Singularity, the Naked Singularity, the Coordinate Singularity, and the Big Bang Singularity. Correlating the nature of these singularities, with the mathematics, theory, and the real physical world, is a conundrum in physics.

 

This work extends the “Strong and Weak Cosmic Censorship” hypotheses originally proposed an debated by Roger Penrose, Steven Hawking, and Kip Thorne, by adding an additional thirteen (13) “Censorships” which removes some of the contradiction that exists with just the two (2) original “Cosmic Censorship Hypotheses” alone. The “Penrose–Hawking–Thorne” singularity theorems, of General Relativity Theory, described in this work, addresses mathematically the concept of “Geodesic Incompleteness”; which is another name for a geodesic with infinite curvature, which at one end of the geodesic is a singularity. And “Geodesic Completeness” another name for a geodesic with infinite curvature, on a 2-Sphere Riemann Manifold; there the Non-Euclidean geometry still predicts a singularity.

 

PDF – The What is the Cosmic Censorship Hypothesis? What are Black Hole Physical and Naked Singularities?

  

Keywords: General Relativity, Einstein Field Equation, Gravitational Field, Coordinate Singularity, Physical Singularity, Gravitation, Black Hole Event Horizon, Spherically Symmetric Metric, Euclidean Geometry, Non-Euclidean Geometry, Minkowski Metric, Einstein Metric, Schwarzschild Metric, Kruskal-Szekeres Metric, Inverse Distance Power Law, Singularities, Hyperbolically Symmetric Metric, Cosmic Censorship Hypothesis, Naked Singularity, Big Bang, Geodesic Incompleteness, Geodesic Completeness

  

Contents

·         1.0       Introduction – What are Singularities

 

 

·         1.1       Inverse Distance Power Law Singularities

 

 

·         1.2       Non-Euclidean – Spherically Symmetric – Schwarzschild Metric and the “Physical Singularity”

 

 

·         1.3       Non-Euclidean – Hyperbolically Symmetric – Kruskal-Szekeres Metric and the “Naked Singularity”

 

 

·         1.4       Big Bang Singularity

 

 

·         1.5       Cosmic Censorship Hypothesis

 

 

·         1.6       Gravitational Field and Electrostatic Field Inverse Power Laws and Singularities

 

 

·         1.7       Spherically Symmetric Metric – Limits of Integration – Euclidean & Pseudo-Euclidean Minkowski Metrics

 

 

·         1.8       Spherically Symmetric Metric – Limits of Integration & “Physical” Singularities – Schwarzschild Non-Euclidean Metric

 

 

·         1.9       Hyperbolic Symmetric Metric – Limits of Integration & “Naked” Singularities – Kruskal-Szekeres Non-Euclidean Metric

 

 

·         1.10     Geodesic Incompleteness

 

 

·         1.11     Geodesic Completeness, Null Geodesics, & Space-Time Manifolds

 

 

·         1.12     Non-Euclidean Metrics & Inverse Distance Power Law Conundrum

 

 

·         1.13     Extended Cosmic Censorship Hypothesis

 

 

·         2.0       Conclusion

 

 

·         3.0       Appendix – 1 ─ Original Bet on Naked Singularities: Stephen W. Hawking, John P. Preskill, Kip S. Thorne

 

 

 

·         4.0       Appendix – 2 ─ New Bet on Naked Singularities: Stephen W. Hawking, John P. Preskill, Kip S. Thorne

 

 

 

 

·         5.0       Appendix – 3 ─ Table of Cosmic Censorship Hypotheses and the Author’s Viewpoint

 

 

 

·         6.0       Appendix – 4 ─ Table of Universal Constants

 

  

1.   Introduction – What Are Singularities of Matter?

 

 

A question that a lot of physicists ask today, is, “What is a Singularity?”, and “Are Singularities Detectable and Measurable?” This work, will attempt to describe three different types or classifications of “Singularities” in nature.

 

In more recent day publishing and literature, there are many different names given to these “singularities”. This work will attempt to conceptualize and organize these different concepts of “singularities” in a way that could be discussed as a subject.

 

The ground work and foundation for conceptualizing by hypothesis the different types of “singularities” which could be found in nature, was laid down by: Roger Penrose (1969), Stephen Hawking (1970), and Kip Thorne (1991); with their “Strong Cosmic Censorship” and “Weak Cosmic Censorship” hypotheses.

 

This work extends the “Cosmic Censorship” by adding additional “Censorships” which removes some of the contradiction that exists with just the two (2) “Cosmic Censorship Hypotheses” alone.

 

The general concept of a “Singularity” in physics and mathematics, describes a point in a space, time, gravitational field, or electrostatic field at which a given physical parameter is not defined.

 

A more conceptually rigorous definition of a “Singularity”, is a point of an “exceptional set” of values, that when input to a mathematical object, fails to be well-behaved, in some particular way, relative to other points in the output of the mathematical object, which are well-behaved.

 

In this work, the only “exceptional set” of input values that will be considered, for the mathematical objects, are the set of space points which range from zero distance (clip_image002) which originates in a center, out to an infinite distance (clip_image004) away from a center; (clip_image006).

 

The most common types of “Singularities” that will be described in this work, and that which is discussed in physics today, independent of what caused them, or their purpose, are the following:

 

·         Inverse Distance Power Law ─ Singularities

·         Black Hole Physical, Coordinate & Naked Singularities

·         Big Bang ─ Singularity

 

 

1.1.       Inverse Distance Power Law Singularities

 

The “Inverse Distance Power Law – Singularities” commonly show up in the physics of the Newtonian Gravitational Force Law (clip_image008) and the Gaussian Electrostatics Force Law. (clip_image010); whose values depend on the inverse square of the distance “power law”, relative to the origins or center of the gradient “Gravitational Field” or gradient “Electrostatic Field” system body; where (clip_image012).

 

And likewise the Inertial Mass Density (clip_image014) and the Electrical Charge Density (clip_image016) of matter, equations among other physical parameters such as: Lineal Density, Pressure, and Potential Energy, all have “Inverse Distance Power Law – Singularities” at the origins or centers (clip_image012) of the gradient “Gravitational Field” or gradient “Electrostatic Field”, of an isolated and conserved, mass or charged system body.

 

Inverse Distance Power Law 

                                                                                                                                                                                                                                                  1.1 

( clip_image019 )       ;    clip_image021

clip_image023

Inverse Distance Power Law

( clip_image019 )

clip_image021

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image026)

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image028)

Inverse Distance Power Law

( clip_image019 )

clip_image030

Infinitely Large Value

“Bang Singularity”

clip_image032

Infinitely Small Value

“Negligible Influence”

 

  

Where the exponent (clip_image021), of the Inverse Distance Power Law, denotes the dimension of the space or space-time.

 

The “Inverse Distance Power Law” (clip_image034), predicts that every mass or charge is bound between two extremes, a zero and a singularity.

 

The “Inverse Distance Power Law” predicts “Infinitely Large”, value “Singularities” at the origin or center (clip_image012), of any “gravitational field” or “electrostatic field” (clip_image036) isolated and conserved system.

 

And likewise, on the extreme opposite distance spectrum, The “Inverse Distance Power Law” predicts “Infinitely Small”, “Zero”, or “Negligible” values at an infinite distance (clip_image038) away from the center of any “gravitational field” or “electrostatic field” (clip_image032) isolated and conserved system.

 

These “Inverse Distance Power Law – Singularities” (clip_image036), are an example of the mathematical difficulty, of the concept of divergence to infinite Density, Force, Pressure, and Potential Energy, which reveals a profound problem in our understanding of the physics phenomena, that takes place at the, center (clip_image012) of an isolated and conserved system.

 

Many in the physics community think that a workable theory of quantum gravity should be able to solve “singularity” problems such as these. I disagree, and believe that “Inverse Distance Power Law – Singularities” (clip_image036) are an artifact of nature that we will always have to deal with. Not to mention, singularities have absolutely no effect on the mass in motion of any body, relative to any other body in the universe.

 

I don’t know of any mathematical way, in which to remove or eliminate a singularity from the center of a system, which obeys any form of the Inverse Distance Power Law!

 

Keep in mind that Singularities do not in any way, effect the motion or behavior of mass or charged particles in our natural world! A singularity is more a problem of the way that we deal with the infinites that show up in our mathematics, than it is a problem of nature, which has to be solved.

 

 

 

1.2.       Non-Euclidean – Spherically Symmetric – Schwarzschild Metric and the “Physical Singularity”

 

In General Relativity, a “Physical Singularity” is manifest in the predictions of the Non-Euclidean Spherically Symmetric “Schwarzschild” Metric   (clip_image041), whenever there is an input of radius equals to zero (clip_image012) into the equation.

 

The Non-Euclidean Spherically Symmetric “Schwarzschild” Metric (clip_image043) is an equation that describes a “geodesic” world “line element” (clip_image045), as a real curving or warping of physical space, space-time, or a gradient gravitational field, that is spherically symmetric, surrounding a condensed matter, mass (clip_image047), or energy source.

 

The Schwarzschild Metric (clip_image049) is a mathematical equation which describes a “geodesic” world “line element” (clip_image045), of a Riemannian manifold with spherically symmetric curvature of space-time, in the “presence” of matter or the Net (clip_image051) Mass, of a localized gradient gravitational field; whose space-time geodesic extends from a “Physical Singularity” at radius equals zero (clip_image012), then extends to the surface of the Black Hole radius (clip_image053) and finally into infinite (clip_image055) distances of that localized space-time gravity field.

 

The Schwarzschild Metric (clip_image049) predicts that there is a Black Hole Event Horizon with two (2) “extreme curvature” singularities located at radius equals to zero (clip_image012), and the Schwarzschild Radius (clip_image057) of the Black Hole Event Horizon.

 

For the Schwarzschild Metric (clip_image049) there is a “Black Hole” and a “Physical Singularity” (clip_image041), with an infinitely “small value”, located at the origin, or center (clip_image012) for every “Black Hole”, “gravitational field”, or “electrostatic field”, isolated and conserved system.

 

And likewise there is a “Coordinate Singularity” (clip_image041), located at the Black Hole Event Horizon Schwarzschild Radius (clip_image059), with an infinitely “large value”, of any “gravitational field” or “electrostatic field”, isolated and conserved system.

 

 

The geometry used to describe the space, space-time, or gravitational field surrounding a “Physical Singularity” is Non-Euclidean Spherically Symmetric; and all of Kepler’s Three (3) Laws of gravitational motion are valid.

image

Non-Euclidean – Spherically Symmetric – Schwarzschild Metric 

                                                                                                                                                                                                                                                  1.2 

clip_image063    ;       clip_image065

 

clip_image067        ;        clip_image069

Non-Euclidean

Spherically Symmetric

Schwarzschild Metric

(clip_image043 )

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image026)

Spherically Symmetric Semi-Major Radius (Distance/Space)

Black Hole Event Horizon

(clip_image072)

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image028)

Schwarzschild Metric  (clip_image043 )

 

clip_image065

clip_image075

clip_image077

 

Infinitely Small Value

“Physical”

Singularity

clip_image077

 

Infinitely Large Value

“Coordinate”

Singularity

clip_image077

 

Infinitely Large Value

Infinitely

“Large Area”

 

Physical Singularities (clip_image077) with “extreme curvature” can be found in all the Metric Equations, of General Relativity, where there are “Black Hole Event Horizons”, which include: the Schwarzschild metric, the Reissner–Nordström metric, and the Kerr metric, among various other metric equations in the scientific literature; in which all have a “Coordinate Singularity” (clip_image079).

 

Another name for a “Physical Singularity” is a “Naked Singularity”, “Gravitational Singularity”, or “Space-time Singularity” that is enclosed by a “Black Hole Event Horizon”, and is a location at the center of the space-time gravitational field, where there is “extreme curvature”; and the quantities that are used to measure the gravitational field become infinite, in a way that does not depend on the coordinate system.

 

 

 

1.3.       Non-Euclidean – Hyperbolically Symmetric – Kruskal-Szekeres Metric and the “Naked Singularity”

 

 

In General Relativity, a “Naked Singularity” is manifest in the predictions of the Non-Euclidean Hyperbolically Symmetric “Kruskal-Szekeres” Metric (clip_image041), whenever there is an input of radius equals to zero (clip_image012) into the equation.

 

The Non-Euclidean Hyperbolically Symmetric “Kruskal-Szekeres” Metric (clip_image043) is an equation that describes a “geodesic” world “line element” (clip_image045), as a real curving or warping of physical space, space-time, or a gradient gravitational field, that is hyperbolically symmetric, surrounding a condensed matter, net inertial mass (clip_image047), or energy source.

 

The Kruskal-Szekeres Metric (clip_image049) is a mathematical equation which describes a “geodesic” world “line element” (clip_image045), of a Riemannian manifold with hyperbolically symmetric curvature of space-time, in the “presence” of matter or the Net (clip_image051) Mass, of a localized gradient gravitational field; whose space-time geodesic extends from a “Naked Singularity” at radius equals zero (clip_image012), then extends into infinite (clip_image055) distances of that localized space-time gravity field.

 

clip_image080

 

The Kruskal-Szekeres Metric (clip_image049) predicts “extreme curvature” singularities located at radius equals to zero (clip_image012).

 

For the Kruskal-Szekeres Metric (clip_image049) there is a “Black Hole” and a “Naked Singularity” (clip_image041), with an infinitely “large value”, located at the origin, or center (clip_image012) for every “Black Hole”, “gravitational field”, or “electrostatic field”, isolated and conserved system.

 

In General Relativity, a “Naked Singularity” is a “Physical Singularity”, “Gravitational Singularity”, or “Space-time Singularity” that is not enclosed by a “Black Hole Event Horizon”, and is a location at the center of the space-time gravitational field, where there is “extreme curvature”; and the quantities that are used to measure the gravitational field become infinite, in a way that does not depend on the coordinate system”.

 

The geometry used to describe the space, space-time, or gravitational field surrounding a “Naked Singularity” is a Non-Euclidean Hyperbolic Symmetric Metric.

Non-Euclidean – Hyperbolically Symmetric – Kruskal-Szekeres Metric 

                                                                                                                                                                                                                                                  1.3 

clip_image082

clip_image067      ;        clip_image069

Non-Euclidean

Hyperbolically Symmetric

Kruskal-Szekeres Metric

(clip_image043 )

Semi-Major Radius (Distance/Space)

 

(clip_image026)

Semi-Major Radius (Distance/Space)

Black Hole Event Horizon

(clip_image072)

Semi-Major Radius (Distance/Space)

 

(clip_image028)

Kruskal-Szekeres Metric – (clip_image043 )

clip_image002[17]

clip_image086

 

Infinitely Large Value

“Naked”

Singularity

clip_image088

 

Value

clip_image077

 

Infinitely Large Value

Infinitely

“Large Area”

   

Naked Singularities with this “extreme curvature” can be found in all the Metric Equations, of General Relativity, where there are no “Black Hole Event Horizons”, which include: Kruskal–Szekeres coordinates, Eddington–Finkelstein coordinates, and Rindler coordinate, among various other metric equations; in which neither have a “Coordinate Singularity”.

 

Inside the “Black Hole”, the “Physical Singularity” is completely enclosed by a surface boundary known as the “Event Horizon”; inside the “Black Hole” the density, force, and pressure of the “singularity” is strong enough so that light cannot escape to the outside surface of the Black Hole Event Horizon.

 

The “Naked Singularity” is completely free from any enclosed surface boundary known as the “Event Horizon”; and similarly there the density, force, and pressure of the “singularity” are strong enough so that light cannot escape “Naked Singularity”.

 

The theoretical existence of “Physical/Naked Singularities” could be somewhat important, when it comes to measurement, because their existence would mean that it would be possible to observe the collapse of an object, to infinite density at a point; in a space, space-time, or gravitational field.

 

And at the same time these “extreme curvature” “Physical/Naked Singularities” are not important at all, because they have no observed, impact on mass or charge bodies in motion, relative to other bodies in motion in the universe.

 

The most commonly discussed concepts of space and time measurements of “black holes”, is that an external observer, outside of the “Event Horizon” cannot observe events taking place in the space-time, within the event horizon. Hence, objects located inside of the “Black Hole Event Horizon”, including the “Physical/Naked Singularity” itself, cannot be directly observed.

 

If this is true, then this means that General Relativity Theory, when using the Non-Euclidean Spherically Symmetric Metric (clip_image090), equations, cannot make predictions about the future evolution of space-time near “Physical/Naked Singularities” (clip_image041).

 

Furthermore, if the problem of the Black Hole Event Horizon “Coordinate Singularity”, which manifest in mathematics of the Non-Euclidean “Schwarzschild” Metric (c), is resolved or eliminated, there is no reason to assume that a “Physical/Naked Singularity”, by contrast, is not observable from the outside of a “Black Hole Event Horizon”. The problem still remains of singularities at the center of a matter, net inertial mass (clip_image047), or condensed energy gravity source.

 

According to modern literature of General Relativity Theory, the “Geodesic Incompleteness Theorem” predicts that the “Black Hole Singularity” is a place that objects, or light rays, can reach in a finite time, and where the curvature becomes extreme, infinite, incomplete, or space-time stops being a Riemann manifold.

 

Also there are the Penrose–Hawking singularity theorems, which describe a space-time with a singularity, to be a “space-time” that contains “geodesics” that cannot be extended in a smooth manner, past the singularity, which is at the end or start of the geodesic; and this also is called “Geodesic Incompleteness”.

 

The end or start of such a “Riemann Manifold” is described by the geodesic world line (clip_image092), and the Penrose–Hawking singularity theorems, is considered to be the “Physical/Naked Singularities” with extreme curvature, and at zero distance (clip_image094) of a space-time, as measured relative to a Spherically/Hyperbolically Symmetric center, of a Net Inertial Mass (clip_image047) gravitational field source, which extends outward into an infinite distance (clip_image096), relative to that same center.

 

What causes “Singularities”, are “Singularities” Created?

 

There is a discussion in the physics community about what causes singularities. Until, now, it was never mentioned, what was the cause of singularities or black holes? This I did to show that it is possible to talk about “Singularities” without describing a cause.

 

Therefore, the concept of what causes a “Singularity” is a question regarding whether a “Singularity” is a real physical thing, which exist in nature? Or is a “Singularity” just an “infinitesimal limit” or “infinitely large limit” in the resulting output of the mathematics of Non-Euclidean Metric equations, which describe how space, space-time, gravitational field, or electrostatic field behaves, curves, or warps in the presence of condensed matter, mass, or energy. 

 

What causes a “Singularity” some theorize, is created from rotating black holes, in which it is shown that a singularity, spinning rapidly, can become a ring-shaped object.

 

Likewise, what is the cause of a “Black Hole”, some theorize that the cause of a “Black Hole, is a “Singularity” rotating fast enough that it might be created by the collapse of dust in a Magellan Clouds or Interstellar Nurseries, or by a supernova of a fast-spinning star.

 

            In this respect this is similar to, which came first the “chicken or the egg”, likewise which came first, the “Black Hole or the Singularity”.

Remember, a “Black Hole” is “Physical Singularity” enclosed by a spherical “Event Horizon”. And likewise, a “Black Hole” could also be considered a “Naked Singularity” without an “Event Horizon” enclosure. Whether the Non-Euclidean geometry surrounding a matter source is hyperbolic or spherical symmetric, is the key identifier.

 

There are also current theories within General Relativity which predict that any star collapsing beyond the Schwarzschild radius (clip_image072) would form a “Black Hole”, inside which a physical singularity, which is covered by an “Event Horizon” would be formed, as all the matter would flow into a physical singularity, point, or a circular line, if the black hole is rotating.

 

This collapsing star would result in two event horizons, as well as an “Ergosphere”, which draw closer together as the spin of the singularity increases.

 

The theory goes on further to say, that when the outer and inner event horizons merge, they shrink toward the rotating singularity, and eventually expose the singularity to the rest of the universe.

 

clip_image097

 

And lastly, there are theories that predict “Singularities” emit light or electromagnetic radiation.

 

Some, of these new concepts and ideas is what this work attempts to synthesize, in a way that provokes thought, new mathematics, and new physics.

 

 

1.4.       Big Bang Singularity

 

According to General Relativity and the “Lambda-Cold-Dark-Matter (ΛCDM)” model, the initial state or origin of the universe, at the beginning of the “Big Bang”, was a “Singularity”.

 

Mainstream physics believes that both “General Relativity” and “Quantum Mechanics” breaks down when describing the Big Bang as a Singularity.

 

According to current “Big Bang Theory” discussion, it is not possible to predict what might come “out” of a “Big Bang Singularity” in our past, or what happens to an observer that falls “in” to a “Black Hole Singularity” in the future, so “current physics thinking” assumes that there is a requirement for a modification to some physical law.

 

They don’t know which law, but they assume that some law must be modified; if there is such a thing as a “Black Hole Singularity”!

 

In my opinion, there is no agreement with the mainstream physics community, as to whether a “Big Bang Singularity” is a “Black Hole Physical/Naked Singularity” (clip_image041), or whether it is an “Inverse Distance Power Law Singularities” (clip_image036).

 

It is possible, and is described in various modern literature, that the “Big Bang Singularity” is a totally different type of “singularity” from the three (3) described above. One “theory” is that the “Big Bang Singularity” is different because it had to have “spawned” off the other types of “singularities”.

 

The “Physical Universe” and everything in it, is theorized to originate from the “Big Bang Singularity”, but the term can also refer to the early hot, dense phase, which can be considered the “birth” of our Universe.

 

How close it can be extrapolated backwards in time towards the “Big Bang Singularity” is most certainly debated. Currently it is predicted that our measuring instruments if at all possible, certainly could get no closer, than the end of the Planck epoch; which includes: Planck Mass, Planck Length, and Planck Time.

 

Extrapolation of the expansion of the Universe backwards in time using the tools of “General Relativity” and the “Lambda-Cold-Dark-Matter (ΛCDM)” model, yields an infinite density and temperature, at a finite time in the past limited by the “Planck Time” (clip_image099), of the Planck Epoch.

 

Any time interval predicted below this “Planck Time” (clip_image101) time Epoch, is considered a “singularity” which signals the breakdown of general relativity; according to popular science.

 

 

Big Bang Early Universe Planck Epoch

Equations & Constants

Planck Mass

(clip_image103)

clip_image105

Planck Length

(clip_image107)

clip_image109

Planck Time

(clip_image103)

clip_image111

  

The age of the Universe, has a calculated age of “13.7 Billion Years Old”, since its evolution from a “Singularity”, and from the “Planck Epoch” and the “Planck Time” (clip_image099); since the “Big Bang” event. The Big Bang Theory is based on measurements of the expansion of the universe, using the following tools:

 

·         Type Ia supernovae

·         Measurements of temperature fluctuations in the cosmic microwave background (CMB)

 

·         Measurements of the correlation function of galaxies

 

The agreement of these three independent measurements strongly supports the presently accepted “Lambda-Cold-Dark-Matter (ΛCDM)” model that describes in detail the contents of the Universe.

 

The early phases of the “Big Bang Theory” are subject to much speculation; and rejection. In the most common models the “Early Universe” was filled with matter and radiation that was isotropic and homogeneous, with very high energy density, and with very large temperatures and pressures; and at the very beginning, the universe was very rapidly expanding and cooling.

 

The current “Big Bang Theory” describes a single originating event, the “Big Bang Singularity”, which was not an explosion, but the abrupt appearance of expanding space-time from this “Singularity”, containing very high electromagnetic heat radiation at temperatures. The “Big Bang Theory” further predicts, that approximately (clip_image113) seconds into the expansion, a phase transition caused a cosmic inflation, during which the Universe grew exponentially.

 

The early universe remained above (10,000 K) for several hundred thousand years, after the “Big Bang”, this is a gaseous state that is detectable as a residual “Cosmic Microwave Background” (CMB); a very low energy radiation emanating from all parts of the sky, in the universe.

 

The “Big Bang Theory” proposes that a “Big Bang” event, originated from a “Singularity”, along with the concept of “Cosmic Inflation” which happened shortly after the initial bang; and is the only current cosmological model, which is consistent, with the currently observed “expansion of space”, the observed distribution of lighter elements in the universe: (hydrogen, helium, and lithium).

 

The “Big Bang Theory” also confirms the measured, spatial texture of minute irregularities or anisotropies in the Cosmic Microwave Background (CMB) radiation; which is observed and detected.

 

Cosmic inflation is also necessary to address what is known as the “horizon problem” in the Cosmic Microwave Background (CMB) of the expanding universe. The current data seems to indicate that the “Expanding Universe” is larger than the “Observable particle or electromagnetic horizon of the universe. This means that the boundaries of the universe will always be bigger, than we can “see” beyond, using “light” electromagnetic radiation as a detecteor!

 

The accepted “Big Bang Theory” uses the “Lambda-Cold-Dark-Matter (ΛCDM)” model, the “FLRW metric”, the “Friedmann equations”, Hubble’s Law, and the “Cosmological Equations of State” to describe the observable universe, at a time right after the inflationary Planck epoch, to present time, and towards the future. The currently accepted “Big Bang Theory” uses the following Mathematical Models:

 

·         “Lambda-Cold-Dark-Matter (ΛCDM)” model,

·         “FLRW metric”,

·         “Friedmann equations”,

·         “Hubble’s Law”

·         “Cosmological Equations of State”

  

1.5.       Cosmic Censorship Hypothesis

 

The “Cosmic Censorship Hypotheses” is a conceptual prediction and mathematical conjecture regarding whether all of the predictions of General Relativity Theory, are detectable and measurable, and regarding the existence and physical structure of “Singularities” in the universe.

 

The hypothesis was conceived by Roger Penrose in 1969, and debated by Steven Hawking, Kip Thorne, and others in the following years.

 

As described earlier “Physical Singularities” arise in the Non-Euclidean Spherically Symmetric Metric (clip_image090) solutions of Einstein and Schwarzschild equations, which are typically hidden within “Black Hole Event Horizons”, and located at the radius equal zero (clip_image012) centers of the “electrostatic field” or “gravitational field”; and according to assumption, therefore cannot be seen from the rest of space-time.

 

These “Physical Singularities” with “Black Hole Event Horizons” are described mathematically by Elliptical and Spherical Symmetric Conic Sections.

 

In general relativity the “Schwarzschild Metric” (clip_image090) equation, is a coordinate system that describes “Spherical/Elliptical Symmetric Symmetry”, surrounding a matter source such that the geometry describes curvature, and in the mathematics there is a “Physical Singularity”, a “Black Hole” with an “Event Horizon” at the center, and located at the radius equal zero (clip_image012) centers of the “electrostatic field” or “gravitational field”.

 

The “Schwarzschild Metric” (clip_image090) equation, further predicts that there is a “Coordinated Singularity”, a “Black Hole” with an “Event Horizon” at the center, and located at the radius equal Schwarzschild Radius (clip_image115) of the “gravitational field”.

 

However, using the proper mathematics this “Coordinated Singularity” can be eliminated from the predictions of the “Schwarzschild Metric” (clip_image090) equation. And once the “Coordinated Singularity” the “Schwarzschild Metric” equation has been eliminated, it has the advantage, in that it covers the entire space-time manifold, and would be well-behaved everywhere outside the “Physical Singularity”.

  clip_image116

 

“Singularities” which are not so hidden behind these “Black Hole Event Horizons” are called “Naked Singularities”. These Naked Singularities, are also located at the radius equal zero (clip_image012) centers of the “electrostatic field” or “gravitational field”; and according to assumption, therefore are able to be seen from the rest of space-time.

 

These “Naked Singularities” without “Black Hole Event Horizons” are described mathematically by Hyperbolic Symmetric Conic Sections.

 

In General Relativity, the “Kruskal–Szekeres Metric” (clip_image090) equation, is a coordinate system that describes Non-Euclidean “Hyperbolic Symmetric Symmetry”, surrounding a matter source, such that the geometry describes curvature, and in the mathematics there is a “Naked Singularity” (clip_image041), which is a “Black Hole” without an “Event Horizon” at the center of a gravity source, and is located at the radius equal zero (clip_image012) centers, of the “electrostatic field” or “gravitational field”.

 

clip_image080

 

The “Kruskal–Szekeres Metric” (clip_image090) equation, coordinates have the advantage in that they cover the entire space-time manifold, and are well-behaved everywhere outside the “Physical Singularity”.

 

clip_image117

 

The “Kruskal–Szekeres Metric” (clip_image090) equation, and coordinates are also well-behaved even at the Schwarzschild Semi-Major Radius (clip_image115); where there would normally be a “Coordinate Singularity”.

 

In essence using “Kruskal–Szekeres Metric” (clip_image090) equation allows you to eliminate the “Coordinate Singularity” (clip_image115) of a manifold, but the “Naked Singularity” at the center, where radius equals zero (clip_image012) remains.

 

Then there are the Penrose–Hawking singularity theorems, which have been generalized to two (2) conjectures, which apply physics to the concept of the nature of “singularities”. They address the singularities which have been found to result during the initial conditions, of the General Relativity Non-Euclidean Metric equations, and likewise there is the “Big Bang Singularity” which denotes the initial condition of the Universe, predicted by Big Bang Theory.

 

The Penrose–Hawking’s singularity theorem guarantees that some sort of geodesic incompleteness occurs inside any black hole, and that Black Holes are always enclosed by Event Horizons. Nature abhors a Naked Singularity!

 

The Hawking’s singularity theorem applies to the whole universe, and works backwards-in-time guaranteeing that the “Big Bang” initial event has infinite density. Hawking’s current position, as document in in “A Brief History of Time (1988), (p50)” where he states: “There was in fact no singularity at the beginning of the universe”.

 

Hawking’s singularity theorem currently predicts that General Relativity Theory must break down at times less than the Planck Epoch of the “Planck Time” (clip_image099). Hence general relativity cannot be used to show any singularity. In essence this makes the claims that there are no singularities in nature.

 

The Penrose–Hawking singularity theorems describe two (2) conjectures the “Weak Cosmic Censorship” and the “Strong Cosmic Censorship” hypotheses which are concerned with the global geometry of space, space-times, gravitational, or electrostatic fields.

 

The Penrose–Hawking singularity theorems use the concept of “Geodesic Incompleteness” which is another name for a geodesic infinite curvature, which extends from (clip_image023); and at one end of the infinite “geodesic” curvature there is a Physical Singularity or a Naked Singularity. The Choice between a Physical Singularity and Naked Singularity is a choice between Spherically Symmetric geometry and Hyperbolically Symmetric geometry of a space, space-time, gravitational field, or electrostatic field, surrounding condensed matter.

 

“Geodesic Incompleteness” is also the concept that there are geodesics, of infinitely curve paths, given by the following limits (clip_image119), which measuring observers traveling along through space-time, can only be extended for a finite time; as the measuring observer traveling along the infinitely curve path must come to an end location, where the observer will encounter a singularity. Presumably, at the end of the infinite curvature geodesic, an within a finite time, the observer will have fallen into a singularity or ends up following some other path, at which the laws of physics are not currently predicted or where General Relativity Theory breaks down.

 

The Penrose–Hawking–Thorne Weak Cosmic Censorship hypothesis, asserts there can be no “singularity” visible from future null infinity. In other words, “singularities” need to be hidden from an observer at infinity by the event horizon of a black hole. This also means that there are no “Naked Singularities” in nature only “Physical Singularities” shrouded by Black Hole Event Horizons exist in the nature of the universe.

 

Likewise, this Weak Cosmic Censorship hypothesis also gives a preference for using a Spherically/Ellipsoidal Symmetric Metric, given by the Schwarzschild Metric (clip_image090) equation, and coordinates, as opposed to using a Hyperbolic Symmetric Metric, given by the “Kruskal–Szekeres Metric” (clip_image090) equation, and coordinates; which is used as a mathematical tool in General Relativity Theory, for describing how space, space-time, or gravitational field is warped or curved in the presence of a Net Inertial Mass/Matter source.

 

Aphorism:                The Weak Cosmic Censorship claims or conjectures that no “Naked Singularities” can exist in nature, other than the “Big Bang Singularity”. Only “Physical Singularities” exists within Black Hole Event Horizons enclosures; the only exception is the “Big Bang Singularity”.

 

The Penrose–Hawking–Thorne Strong Cosmic Censorship hypothesis, asserts that, General Relativity Theory, is a completely deterministic theory for all values of radius (clip_image121), in a way similar that classical mechanics is a deterministic theory. In other words, the General Relativity Theory is deterministic, and the fate of all observers should be predictable from all data, including the initial data, where there is zero radius (clip_image012).

 

Aphorism:                The Strong Cosmic Censorship claims or conjectures that that General Relativity “Metric” Theory (clip_image043) is a measurable and deterministic theory, and is predictable from the initial data with zero radius (clip_image012) and would continue to be predictable with all other radius values, including final data at radius equals to infinity (clip_image023).

 

The Penrose–Hawking–Thorne two conjectures are mathematically independent, however, one can conceivably come up with contradictory conditions, for which the weak cosmic censorship is valid, but the strong cosmic censorship is violated. Likewise can conceive conditions for which the weak cosmic censorship is violated but the strong cosmic censorship is valid.

  

 

1.6.       Gravitational Field and Electrostatic Field Inverse Power Laws and Singularities

  

The “Inverse Distance Power Law” applied to “Gravitational Phenomena” and “Electrostatics Phenomena” predicts that there are various quantities of physics, which diminish as the distance increases, in different powers; such as Gravitational and Electrostatic: Force, Pressure, Linear Density, Volume Density, and Potential Energy.

 

Inverse Distance Power Law 

                                                                                                                                                                                                                                                  1.4 

( clip_image019 )       ;    clip_image021

clip_image067        ;        clip_image125

Inverse Distance Power Laws

Three Dimensional

Power Classification

clip_image021

Inverse Distance

Power Law

Physical Parameters

( clip_image019 )

Inverse Space

(clip_image127)

Three Dimensional Distance Space

clip_image129

( clip_image131 )

Inverse Distance Space (Inverse Linear or Curvilinear Distance)

Square of the Distance “Area” Space

 clip_image133

( clip_image135 )

Inverse Square of the Distance Space (Inverse Area)

Cube Power “Volume” Space

 clip_image137

( clip_image139 )

Inverse Cube of the Distance Space (inverse Volume)

Fourth Power of the Distance Space

clip_image141

( clip_image143 )

Inverse fourth power of the Distance Space

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

image

 

 

The “Inverse Distance Power Law” applied to each of those various physical parameters in the above table, predicts “Singularities” (clip_image036) at the origin or center and radius equals zero (clip_image012) of any “gravitational field” or “electrostatic field”, isolated and conserved system.

 

The “Inverse Distance Power Law Singularity” can be either a “Physical Singularity” enclosed by a Black Hole Event Horizon which is applied to spherically symmetric space-time, or it can be a “Naked Singularity” which is open, and applied to hyperbolic symmetric space-time.

 

The “Inverse Distance Power Law” likewise predicts “Infinitely Small”, “Zero”, or “Negligible” values at an infinite distance (clip_image038) away from the center of any “gravitational field” or “electrostatic field” (clip_image032) isolated and conserved system.

 

I don’t know of any mathematical way, in which to remove or eliminate a singularity from the center of a system, which obeys any form of the Inverse Distance Power Law!

 

These “Inverse Distance Power Law – Singularities” (clip_image036), are, of course, an example of the mathematical difficulty of divergence to infinite Linear Mass Density, Volume Mass Density, Force, Pressure, and Potential Energy, which reveals a profound problem in our understanding of the physics phenomena, that takes place at the, center (clip_image012) of an isolated and conserved system.

 

Many in the physics community think that a workable theory of quantum gravity should be able to solve “singularity” problems such as these. I disagree, and believe that “Inverse Distance Power Law – Singularities” (clip_image036) are an artifact of nature that we will always have to deal with!

 

The “Inverse Distance Power Law – Singularities” commonly show up in the physics of the Newtonian Gravitational Force Law (clip_image008) and the Gaussian Electrostatics Force Law. (clip_image010); whose values depend on the inverse square of the distance “power law”, relative to the origins or center of the gradient “Gravitational Field” or gradient “Electrostatic Field” system body; where (clip_image012).

 

And likewise the Inertial Mass Density (clip_image014) and the Electrical Charge Density (clip_image016) of matter, equations among other physical parameters such as: Lineal Density, Pressure, and Potential Energy, all have “Inverse Distance Power Law – Singularities” at the origins or centers (clip_image012) of the gradient “Gravitational Field” or gradient “Electrostatic Field”, of an isolated and conserved system body.

 

The following is a list of Inertial Mass Gravitation and Electrostatic parameters that use the “Inverse Distance Power Laws”; and which describe “Singularities” at the origins or centers (clip_image012), and negligible or zero influence at an infinite distance (clip_image147) away from the origin centers of the “Gravitational Field” or “Electrostatic Field”.

 Gravitational Field Parameters

Inertial Mass Gravitation Parameters

“Bang Singularities”

&

Infinite Distance Observer Interaction

clip_image002        ;        clip_image004

 

Various

Inverse Power Law

Physical Parameters

Inverse Distance

Power Law

Physical Parameters

 

(clip_image006)

clip_image008

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image010)

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image012)

Inertial Linear Mass Density

(clip_image014)

clip_image016

clip_image018 

 

Infinitely Large Value

“Bang Singularity”

clip_image020

Zero Value

“Flat Space”

Self Gravitational Potential Energy

(clip_image022)

clip_image024

clip_image026

Infinitely Large Value

“Bang Singularity”

clip_image028

Zero Value

“Flat Space”

Self Gravitational Force

(clip_image030)

clip_image032

clip_image034

Infinitely Large Value

“Bang Singularity”

clip_image036

Zero Value

“Flat Space”

Inertial Volume Mass Density

(clip_image038)

clip_image040

clip_image042

Infinitely Large Value

“Bang Singularity”

clip_image044

Zero Value

“Flat Space”

Self Gravitational Pressure

(clip_image046)

clip_image048

clip_image050

Infinitely Large Value

“Bang Singularity”

clip_image052

Zero Value

“Flat Space”

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

Electrostatic Field Parameters

 

Electrostatic Field Parameters

“Bang Singularities”

&

Infinite Distance Observer Interaction

clip_image002        ;        clip_image004

 

Various

Inverse Power Law

Physical Parameters

Inverse Distance

Power Law

Physical Parameters

(clip_image006)

clip_image008

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image010)

Spherically Symmetric Semi-Major Radius (Distance/Space)

 

(clip_image012)

Electric Linear Charge Density

(clip_image054)

clip_image056

clip_image058 

 

Infinitely Large Value

“Bang Singularity”

clip_image060

Zero Value

“Flat Space”

Self Electrostatic Potential Energy

(clip_image022)

clip_image062

clip_image064

Infinitely Large Value

“Bang Singularity”

clip_image066

Zero Value

“Flat Space”

Self Electrostatic Force

(clip_image030)

clip_image068

clip_image070

Infinitely Large Value

“Bang Singularity”

clip_image072

Zero Value

“Flat Space”

Electric Volume Charge Density

(clip_image074)

clip_image076

clip_image078

Infinitely Large Value

“Bang Singularity”

clip_image080

Zero Value

“Flat Space”

Self Electrostatic Pressure

(clip_image046)

clip_image082

clip_image084

Infinitely Large Value

“Bang Singularity”

clip_image086

Zero Value

“Flat Space”

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

 

 

1.7.       Spherically Symmetric Metric – Limits of Integration – Euclidean & Pseudo-Euclidean Minkowski Metrics

 

Next, let’s consider the limits of integration for the Spherically SymmetricMetrics (clip_image225); Flat Space – Euclidean and Pseudo-Euclidean “Minkowski” “Mass Independent” metrics, where there are no “Singularities” present.

  

Euclidean – Euclidean Metric – Flat Space-Time 

                                                                                                                                                                                                                                                  1.5 

clip_image227     ® clip_image229

The Euclidean Metric (clip_image225) radial limits which extend from the center of the gradient gravitational field (clip_image231), and into infinite distances (clip_image233), is given in this classical form below.

  

clip_image067        ;        clip_image235

 

 This predicts that the Euclidean Metric (clip_image049) is a “Flat Space-Time” and contains or produces no “Singularities” in this form of the metric.

 clip_image238

 

clip_image240

Pseudo-Euclidean – Minkowski Metric – Flat Space-Time 

                                                                                                                                                                                                                                                  1.6 

 clip_image242    ® clip_image229

 

With a metric signature of (-+++) being used. The Minkowski “Flat Space-Time” Metric (clip_image225) has the radial limits which extend from the center of the gravitational field (clip_image231), and into infinite distances (clip_image233), is given in this classical form below. (clip_image006). This predicts that the Minkowski Metric (clip_image049) contains or produces no “Singularities” in this form of the metric.

  

clip_image067        ;        clip_image246

clip_image248

 

clip_image249

 

 The graph of the Euclidean and Minkowski Metrics (clip_image225), predict a “Flat Space-Time”, where the radial integration limits, extend from the center of the gradient gravitational field (clip_image231), and into infinite distances (clip_image251), away from the center is given in this classical form below.

 

clip_image067        ;        clip_image235

In the graph below the Spherically Symmetric Minkowski Metrics (clip_image225) are shown at various velocity ratios:

 

clip_image254

 

And the Surface Curvature components are given by:

 

 clip_image256

 

 

image

 

 

1.8.       Spherically Symmetric Metric – Limits of Integration & “Physical” Singularities – Schwarzschild Non-Euclidean Metric

 

In General Relativity, the Non-Euclidean Spherically SymmetricSchwarzschild “Mass Dependent” Metric (clip_image225) describes the geodesic, curving, or warping of a space, space-time, or inhomogeneous gradient gravitational field, in the presence of a net inertial mass/matter (clip_image260) source; with a Black Hole Event Horizon, and the “Physical Singularity” at the core source of the isolated and conserved gravitational field.

 

Spherically Symmetric – Schwarzschild Metric  

                                                                                                                                                                                                                                                  1.7 

clip_image262 ® clip_image229

 

 

With a metric signature of (-+++) being used. In all of the “modern literature” written on General Relativity, the Schwarzschild Metric (clip_image225) yields predictable results “only” in the “exterior region” of the Black Hole Event Horizon source of the gravity field. The predictable results start with any radius relative to center of the gradient gravitational field that is greater than the Schwarzschild Radius (clip_image264), and into infinite distances (clip_image266), of the gradient field.

 

clip_image268

The Exterior solution corresponds to the space outside of the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image270).

  

clip_image272

  

The Interior solution corresponds to the space within or inside the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image270).

 

clip_image274

 

The “modern literature” written on General Relativity, describes that the Schwarzschild Metric (clip_image049) predicts that a “Black Hole” has “two (2) Singularities” in the metric of a localized inhomogeneous gravitational field:

 

There is one “Physical Singularity” that is an infinitely “small” number located at zero radius (clip_image276) of the gradient gravitational field. (clip_image278).

 

And a second “Coordinate Singularity” that is an infinitely “large” number located at the Black Hole Event Horizon, Schwarzschild (clip_image280) Radius of the inhomogeneous gradient gravitational field. (clip_image278).

clip_image067        ;        clip_image069

clip_image283

 clip_image285

 

The Schwarzschild Metric (clip_image049) predicts the “Physical Singularity” located at zero radius, is “extreme curvature” as the geodesic approaches an infinitely small value, (clip_image288), as the radius approaches zero (clip_image290). The “Physical Singularity” is a natural artifact for any Non-Euclidean metric.

 

The “Coordinate Singularity” is an anomaly, and is an infinitely large value, (clip_image288), with “extreme curvature” of the geodesic as the radius approaches Schwarzschild Radius (clip_image293).  This value is an anomaly, and is not a natural artifact for any Non-Euclidean metric.

 

Furthermore,the Schwarzschild Metric (clip_image049) predicts, that as the distance relative to a spherically symmetric center, approaches infinity or an infinite distance (clip_image295) away from the “physical singularity”, center, where there is maximum or extreme curvature, the Non-Euclidean“Curved Space-time” becomes Minkowski “Flat Space-time”. This is also known as Non-Euclidean “Geodesic Incompleteness”; of a diverging gravity field.

 

Pseudo-Euclidean – Minkowski Metric 

                                                                                                                                                                                                                                                  1.8 

clip_image297      ® clip_image229

 

Non-Euclidean Spherically Symmetric “Schwarzschild” Metric

 “Geodesic Incompleteness” of a Diverging Gravitational Field

Singularities and Infinitely Large Spaces Listed

clip_image067        ;        clip_image069 

Non Euclidean “Schwarzschild” Metric

(Curved Space-time)

(clip_image090)

Spherically Symmetric Metric

(clip_image225)

Spherically Symmetric Semi-Major Radius (Distance/Space)

(clip_image290)

&

(clip_image127)

Spherically Symmetric Metric

(clip_image225)

Spherically Symmetric Semi-Major Radius (Distance/Space)

 (clip_image293)

&

(clip_image302)

Spherically Symmetric Metric

(clip_image225)

Spherically Symmetric

Semi-Major Radius (Distance/Space)

 (clip_image304)

&

(clip_image149)

Schwarzschild Metric

(Curved Space-time)

(clip_image090)

clip_image307

clip_image309

clip_image311

Schwarzschild Metric

(Curved Space-time)

(clip_image090)

clip_image077

(Infinitely Small)

clip_image077

(Infinitely Large)

clip_image077

(Infinitely Large)

Schwarzschild Metric

(Curved Space-time)

(clip_image090)

Physical

Singularity

Coordinate

Singularity

Infinitely Large

Spherically Symmetric

Space-time

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

 

 

 

Below is a plot of the Schwarzschild Metric (clip_image049)

 

(clip_image313)                 Then              (clip_image315)  

 

And clip_image317

 

image

 

 

1.9.       Hyperbolic Symmetric Metric – Limits of Integration & “Naked” Singularities – Kruskal-Szekeres Non-Euclidean Metric

 

 

In General Relativity, the Hyperbolic SymmetricKruskal-Szekeres “Mass Dependent” Metric (clip_image225) describes the curving or warping of a space, space-time, or gravitational field, in the presence of a net inertial mass (clip_image260) source, without a Black Hole Event Horizon enclosure. Next, let’s consider the limits of integration and the “Naked Singularity” of the Kruskal-Szekeres Metric equation.

 

The Kruskal-Szekeres metric equation and coordinates are sometimes chosen because, they are able to cover the entire extended Schwarzschild manifold, without the problem of a “Coordinate Singularity” and a Black Hole Event Horizon; it has the drawback of involving implicit functions like (clip_image322), and being a much harder calculation.

 

Due to the complexity of the Kruskal-Szekeres coordinates it makes them difficult to use for actual calculations that require knowledge of the detailed geometry, as opposed to the causal structure.

 

The Kruskal-Szekeres coordinates were invented only as a solution to resolving the “Coordinate Singularity” located at the Black Hole Event Horizon Surface (clip_image280), of the Schwarzschild coordinates.

 

The Kruskal-Szekeres coordinates solution to the “Coordinate Singularity” problem, was to remove the Black Hole Event Horizon, thereby exposing to any measuring observer, a “Naked Singularity.”

 

The author does not think that the Hyperbolically Symmetric Kruskal-Szekeres Metric (clip_image225) equation is a mathematically precise, physical description of nature. The author favors the Spherically SymmetricSchwarzschild Metric (clip_image225), and believes that equation, is a more mathematically precise, physical description of nature.

 

However, let’s briefly look at the concepts and mathematics of the Hyperbolically Symmetric Kruskal-Szekeres Metric (clip_image225).

 

The “Hyperbolic Curvature” term (clip_image324) is found in the Hyperbolically Symmetric Kruskal-Szekeres Metric (clip_image225) and is a square of the distance, or area parameter, that measures the surrounding curving of space, space-time, gravitational field, in the presence of a mass (clip_image260) body source.

Hyperbolically Symmetric Kruskal-Szekeres MetricHyperbolic Curvature Term (clip_image324)

                                                                                                                                                                                                                                                  1.9 

clip_image328        ® clip_image229

 

 

The hyperbolic curvature term (clip_image324) in the Kruskal-Szekeres Metricrepresents differential “Space-Time” (clip_image330), and differential “Distance/Space” (clip_image332), in a hyperbolically symmetric space, space-time, or gravitational field as described mathematically in the following:

                                                                                                                                                                                                                                               1.10 

clip_image334    ® clip_image229

 

 

Where the Schwarzschild Radius (clip_image336) is given.

 

The Kruskal-Szekeres coordinates and Metric is given by the following:

 

Hyperbolically Symmetric Kruskal-Szekeres Metric(clip_image225)

                                                                                                                                                                                                                                               1.11 

clip_image339 

clip_image341 


 

After making substitution, and rearranging, the Kruskal-Szekeres coordinates and Metric is also given by the following:

                                                                                                                                                                                                                                               1.12 

 clip_image343 ® clip_image229

 

 

Next letting the space and time term in the equation above equals to the following.

 

clip_image345

 

 

The following mathematical formalism of the Hyperbolically Symmetric Kruskal-Szekeres Metric(clip_image225), I have not seen published in the literature, and is a much more simpler way of understanding the physics, behind the calculation of the metric.

 

“New” Hyperbolically Symmetric Kruskal-Szekeres Metric(clip_image225)

                                                                                                                                                                                                                                               1.13 

clip_image347  ® clip_image229

 

 

With a metric signature of (-+++) being used. In all of the “modern literature” written on General Relativity, the Kruskal-Szekeres Metric (clip_image225) claims to yields predictable results in all “hyperbolic” regions away from and surrounding a “Naked Singularity”, where there is extreme curvature at the center of a net inertial mass (clip_image349) body, space, space-time, or gradient gravitational field.

 

Likewise, General Relativity, describes that the Kruskal-Szekeres Metric (clip_image049) predicts one “Naked Singularity” in the origin and center (clip_image002) of any localized curved space, space-time, or gravitational field, surrounding a Net Inertial Mass/matter (clip_image349) source.

 

The “Naked Singularity” is an infinitely “Large” number located at zero radius (clip_image276) of the space, space-time, or gradient gravitational field, described by the Kruskal-Szekeres Metric (clip_image278).

 

The extreme “hyperbolically” curved space, space-time, or gradient gravitational field, described by the hyperbolic geometry of the Kruskal-Szekeres Metric (clip_image225), and has limits described by the “Geodesic Incompleteness” (clip_image352), and into infinite distances (clip_image354), away from the “Naked Singularity” is given below.

 

 clip_image067        ;        clip_image069

clip_image356

 

clip_image357

 

The Kruskal-Szekeres Metric (clip_image049) predicts a “Naked Singularity” located at zero radius, is a value that approaches an infinitely large value, as the radius approaches zero.

 

The “Naked Singularity” (clip_image278) requires accepting that there are no Black Holes with Event Horizons in nature. The author predicts that “Naked Singularities” do not exist!

 

Furthermore,the Kruskal-Szekeres Metric (clip_image049) predicts, that as the distance relative to a hyperbolically symmetric center approaches infinite distance(clip_image295) or an infinite distance away from the “Naked singularity” and maximum curvature, the Non-Euclidean“Curved Space-time” becomes “Flat Space” independent of Time. This is also known as the “Geodesic Incompleteness”.

 

2-Sphere Manifold Surface Area Metric

                                                                                                                                                                                                                                               1.14 

clip_image359  ® clip_image229

 

Non-Euclidean Hyperbolically Symmetric “Kruskal-Szekeres”

“Mass Dependent” Metric

Singularities and Infinitely Large Spaces

 clip_image067        ;        clip_image069

Non Euclidean “Kruskal-Szekeres” Metric

(Curved Space-time)

(clip_image090)

Hyperbolically Symmetric Metric

(clip_image090)

Hyperbolically Symmetric Semi-Major Radius (Distance/Space)

(clip_image290)

&

(clip_image127)

Hyperbolically Symmetric Metric

(clip_image090)

Hyperbolically Symmetric Semi-Major Radius (Distance/Space)

 (clip_image304)

&

(clip_image149)

Kruskal-Szekeres Metric

(Curved Space-time)

(clip_image090)

clip_image362

clip_image364

Kruskal-Szekeres Metric

(Curved Space-time)

(clip_image090)

clip_image366

(Infinitely Large)

clip_image077

(Infinitely Large)

Kruskal-Szekeres Metric

(Curved Space-time)

(clip_image090)

Naked

Singularity

Infinitely Large

Spherically Symmetric

Space-time

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

 

 

Below is a plot of the Kruskal-Szekeres Metric (clip_image049)

 

(clip_image368)               Then              (clip_image370)   

 

And clip_image317

 

image

 

1.10.    Geodesic Incompleteness

 

 

The Penrose–Hawking singularity theorems use the concept of “Geodesic Incompleteness” which is another name for a geodesic with infinite curvature, which extends from (clip_image023); and at one end of the infinite “geodesic” curvature, with a metric output (clip_image374), there is a Physical Singularity or a Naked Singularity, and at the opposite spectrum infinite space, or area.

 

The Choice between a Physical Singularity and Naked Singularity is a choice between Spherically Symmetric geometry and Hyperbolically Symmetric geometry, and whether there is a “Black Hole Event Horizon” in a space, space-time, gravitational field, or electrostatic field surrounding a mass or charge source.

 

Remember that a Physical Singularity is an “Infinitely Small Number” predicted by the Schwarzschild Spherically Symmetric Metric (clip_image376); located at the center of a gravitational field, or electrostatic field.

 

And the Naked Singularity is an “Infinitely Large Number” predicted by the Kruskal-Szekeres Hyperbolically Symmetric (clip_image378) Metric; located at the center of a gravitational field, or electrostatic field.

 

“Geodesic Incompleteness” is also the concept that there are geodesics, of infinitely curve paths, which measuring observers traveling along through space-time, can only be extended for a finite time; as the measuring observer traveling along the infinitely curve path must come to an end location, where the observer will encounter a singularity, and where the mathematics are undefined:

 

·               “Geodesic Incompleteness” limits of integration ─ (clip_image023)

 

·               Euclidean Metric              ─         (clip_image380)

 

·               Minkowski Metric             ─         (clip_image382)

 

·               Schwarzschild Metric     ─         (clip_image384)

 

·               Kruskal-Szekeres            ─         (clip_image386)

 

 

Therefore, at the end of the “Non-Euclidean” infinite curvature geodesics, an within a finite time, the observer will have fallen into a singularity, or ends up following some other path, at which the laws of physics are not currently predicted, undefined, or where General Relativity Theory breaks down.

 

 

Geodesic Incompleteness

Euclidean, Minkowski, Schwarzschild, and Kruskal-Szekeres Space-Time Metrics

Metric Type

Spherically & Hyperbolically Symmetric Metric

(clip_image225)

Semi-Major Radius (Distance/Space)

 (clip_image290)

Spherically & Hyperbolically Symmetric Metric

(clip_image225)

Semi-Major Radius

(Distance/Space)

 (clip_image304)

Euclidean Metric

(Flat Space)

(Mass Independent)

clip_image307

clip_image390

Pseudo Euclidean “Minkowski” Metric

(Flat Space-time)

(Mass Independent)

clip_image392

clip_image394

Non Euclidean “Schwarzschild” Metric

(Curved Space-time)

(Mass Dependent)

clip_image307

clip_image397

As the distance relative to a spherically symmetric center approaches zero (clip_image399)

“Curved Space-time” becomes

Infinitesimally Small Space

(Physical Singularity)

As the distance relative to a spherically symmetric center approaches infinity (clip_image401)

Non-Euclidean

“Curved Space-time” becomes

Minkowski

“Flat Space-time”

Non Euclidean “Kruskal-Szekeres” Metric

(Curved Space-time)

(Mass Dependent)

clip_image362

clip_image404

As the distance relative to a spherically symmetric center approaches zero (clip_image399)

“Curved Space-time” becomes

Infinitely Large Space

(Naked Singularity)

As the distance relative to a spherically symmetric center approaches infinity (clip_image401)

Non-Euclidean

“Curved Space-time” becomes

 “Flat Space-time”

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

 

 

The “Geodesic Incompleteness” table describes Euclidean, Minkowski, Schwarzschild, and Kruskal-Szekeres Metrics above, shows that only the Minkowski Metric does not end “Zero” or “Incompleteness”. The Minkowski Metric predicts (clip_image392).

 

All singularities are not the same!

 

The Euclidean Metric (clip_image049), Minkowski Metric (clip_image049), Kruskal-Szekeres Metric (clip_image049), & Schwarzschild Metric (clip_image049)

 

image

 

 

The “Geodesic Incompleteness” table along with the “Metric Equations” of the Euclidean, Minkowski, Schwarzschild, and Kruskal-Szekeres Metrics below, shows that only the Minkowski Metric does not end in “Zero” or “Incompleteness”. (clip_image392).

 

 

 

Geodesic Incompleteness

Euclidean, Minkowski, Schwarzschild, and Kruskal-Szekeres Gravitational & Space-Time Metrics

Metric Classification

Spherically & Hyperbolically Symmetric Metric

(clip_image088)

Semi-Major Radius (Distance/Space)

(clip_image010)

Semi-Major Radius (Distance/Space)

(clip_image012)

Euclidean Metric

Mass Independent

clip_image090

clip_image092

 

Zero Value

Empty Space

“Point Particle”

clip_image094

 

Infinitely Large Value “Space”

“Flat Space”

Pseudo Euclidean “Minkowski” Metric

Mass

Independent

clip_image096

clip_image098

Non-Zero Negative Value “Time-Like”

“Space-Time”

clip_image094

Infinitely Large Value “Space”

“Flat Space”

Non Euclidean

“Schwarzschild”

Metric

Mass

Dependent

clip_image101

clip_image103

 

clip_image105

Infinitely Small Value “Space”

“Physical Singularity”

clip_image094

Infinitely Large Value “Space”

“Flat Space”

Non Euclidean

“Kruskal-Szekeres”

Metric

Mass

Dependent

clip_image002[6]

clip_image109

Infinitely Large Value “Space”

“Naked Singularity”

clip_image094

Infinitely Large Value “Space”

“Flat Space”

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

1.11.    Geodesic Completeness, Null Geodesics, & Space-Time Manifolds

  

The concept of “Geodesic Completeness” which is another name for a “Gaussian/Riemann Manifold” or “Surface” which is described by a “Null Geodesic” of finite curvature, which extends from (clip_image023), when the Spherically/Hyperbolically Symmetric Metric is equal to zero (clip_image426).

 

In general two adjacent “local” points, of a geodesic, on a manifold resembles Euclidean space, although globally a manifold could be Non-Euclidean. For example, the surface of the sphere is not a Euclidean space, but in a local region or area on the sphere, it can be charted on geographic maps into a flat Euclidean plane.

 

One important class of geodesics on manifolds is the class of differentiable manifolds that is “Covariant” between inertial and non-inertial frames of reference; that is denoted by the equation (clip_image428); and because calculus can be done on manifolds and their surface area.

 

A differentiable manifold can be described using mathematical maps, called coordinate charts, collected in a mathematical form that proves that a frame of reference on a Gaussian/Riemann manifold/surface, has a defined set of coordinates, which can have a zero, Black Hole “Naked Singularity” or a “Physical Singularity” at the center of that coordinate system.

 

A general Riemannian metric on a four (4) dimensional manifold allows for Non-Euclidean distances, and longitude (clip_image430) and latitude (clip_image432) angles, to be measured; likewise “Covariant” “geodesic arc-length” (clip_image434) exists between inertial and non-inertial frames of reference.

 

Gaussian/Riemann Manifold – Map/Patch/Manifold Surface Metric

                                                                                                                                                                                                                                               1.15 

 

clip_image436

 

 

Geodesic motion is an idealization of a path described by a Metric, where one assumes the existence of test mass particles which all follow geodesic from point to point, through a space, space-time or gravitational field, in which they reside. “Geodesic completeness” at one end of the Gaussian/Riemann 2-Sphere, Manifold/Surface is a finite “Null geodesic” Non-Euclidean curvature, there is a Physical Singularity or a Naked Singularity, and this manifold is extended into an infinite distance away from any zero or singularity source.

 

“Geodesic completeness” (clip_image438) is also the concept that when the Spherically/Hyperbolically Symmetric Metric is equal to zero (clip_image440), there is a Gaussian/Riemann Manifold/Surface that describe geodesics, with finitely curve paths, which measuring observers traveling along through space-time, can be extended for an infinite time. As the measuring observer traveling along the infinitely curve path could never come to an end location, where the observer will encounter a singularity.

 

The “Null Geodesic Completeness” (clip_image438) predicts when the Spherically/Hyperbolically Symmetric Metric is equal to zero (clip_image440), the differential “Space” and “Time” are predicted along the geodesics of a manifold which is either Euclidean or Non-Euclidean, and its coordinates are equal to a negative of the Map/Patch/Manifold Surface Metric (clip_image442).

 

Null Geodesic Completeness Theorem (clip_image440)

                                                                                                                                                                                                                                               1.16 

clip_image444

 

 

clip_image446

 

Because of this feature described above of “Null Geodesics” (clip_image440), it is said that only “mass-less” electromagnetic particle-waves with a rest mass of zero, like the photon, will follow null geodesics:

 

clip_image067        ;        clip_image235

·         “Geodesic Completeness” Null Geodesic Condition ─ (clip_image449)

 

·         Euclidean Metric                  ─   (clip_image451)

 

·         Minkowski Metric                 ─  (clip_image453)

 

 

·         Schwarzschild Metric        ─  (clip_image455 )

 

·         Kruskal-Szekeres               ─  (clip_image457)

 

Geodesic Completeness, Null Geodesic & Space-Time Manifolds

Euclidean, Minkowski, Schwarzschild, and Kruskal-Szekeres Metrics

 

clip_image067        ;        clip_image235

 

Metric Classification

Spherically & Hyperbolically Symmetric Metric “Manifolds”

(clip_image225)

2-Sphere Manifolds

(clip_image460)

Euclidean Metric

Mass Independent

clip_image409

clip_image451

Pseudo Euclidean “Minkowski” Metric

Mass

Independent

clip_image415

clip_image453

Non-Zero Negative Value “Time-Like”

“Space-Time”

Non Euclidean

“Schwarzschild”

Metric

Mass

Dependent

clip_image065

clip_image075

clip_image065

clip_image462

Infinitely Small Value “Space”

“Physical Singularity”

Non Euclidean

“Kruskal-Szekeres”

Metric

Mass

Dependent

clip_image002[21]

clip_image002[23]

Infinitely Large Value “Space”

“Naked Singularity”

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

 

1.12.    Non-Euclidean Metrics & Inverse Distance Power Law Conundrum

  

There is a Conundrum in physics regarding all “Singularities”.  The physics and the mathematics predict that there are “Physical Singularities” or “Naked Singularities” and “Inverse Distance Power Law Singularities” in the physical same location.

 

What does this mean for physics and measurement?

 

This allows us to describe hypotheses which will also be described later; and is stated by the following aphorisms below:

 

Aphorism:                The Cosmic “Conundrum” Censorship claims or conjectures that “Inverse Distance Power Law Singularities” describe infinitely large values (clip_image036), and the “Physical Singularities” (clip_image468) describe infinitely small values, and the “Naked Singularities”           (clip_image470) describe infinitely large values, of space, space-time, gravitational field, or the electrostatic field, in the same location of zero radius (clip_image012); what are the implications? Is the singularity measurable?

 

 

Aphorism:                The Strong Cosmic Censorship claims or conjectures that that General Relativity “Metric” Theory (clip_image090) is a measurable and deterministic theory (clip_image472), and is predictable from all data, including the initial data with zero radius (clip_image012) and would continue to be predictable with all other radius values, including final data at infinite radius (clip_image474).

 

 

Aphorism:                The Strong Cosmic “Most Probable” Censorship claims or conjectures that that General Relativity “Metric” Theory    (clip_image476) is a completely measurable and deterministic theory, only within a certain range, and is not predictable from the initial data, with zero radius (clip_image012), and the final data, where radius equals to infinity (clip_image147), and would only be predictable and deterministic, with all other radius values, between the initial and final input values (clip_image478).

 

The above General Relativity aphorisms apply to the Non-Euclidean Spherically/Hyperbolically Symmetric Metric (clip_image090) equations, and the Inverse Distance Power Law (( clip_image019 )       ;    clip_image021) equations, predict values on both “Cosmological” and “Quantum Mechanical” scales; and is conceptualized below.

 

image

 

Non-Euclidean Schwarzschild Spherically Symmetric Metric

& Inverse Distance Power Law

Incompleteness Positions/Locations

Semi-Major Radius (Distance/Space)

Inverse Distance

Power Law

Physical Parameters

 

(clip_image019)

 

clip_image021

Non-Euclidean Schwarzschild Spherically Symmetric Metric

 

 clip_image481

clip_image075

Semi-Major Radius (Distance/Space)

(clip_image127)

clip_image484

 

Infinitely Large Value

“Bang Singularity”

clip_image077

 

Infinitely Small Value

“Curved Space-time”

“Physical Singularity”

Semi-Major Radius (Distance/Space)

(clip_image302)

clip_image487

 

Finite Value

“Black Hole”

“Event Horizon”

clip_image077

 

Infinitely Large Value

“Curved Space-time”

“Coordinate Singularity”

Semi-Major Radius (Distance/Space)

(clip_image149)

clip_image490

 

Zero Value

“Flat Space”

clip_image077

 

Infinitely Large Value

“Flat Space-time”

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

 

image

 

 

Non-Euclidean Kruskal-Szekeres Hyperbolically Symmetric Metric

& Inverse Distance Power Law

Incompleteness Positions/Locations

Semi-Major Radius (Distance/Space)

Inverse Distance

Power Law

Physical Parameters

 

(clip_image019)

 

clip_image021

Non-Euclidean Kruskal-Szekeres Hyperbolically Symmetric Metric

clip_image002[25]

Semi-Major Radius (Distance/Space)

(clip_image127)

clip_image484

 

Infinitely Large Value

“Bang Singularity”

clip_image077

 

Infinitely Small Value

“Curved Space-time”

“Physical Singularity”

Semi-Major Radius (Distance/Space)

(clip_image302)

clip_image487

 

Finite Value

“Black Hole”

“Event Horizon”

clip_image496

 

Infinitely Large Value

“Curved Space-time”

“Coordinate Singularity”

Semi-Major Radius (Distance/Space)

(clip_image149)

clip_image490

 

Zero Value

“Flat Space”

clip_image077

 

Infinitely Large Value

“Flat Space-time”

Copyright © 2013 Super Principia Mathematica

www.SuperPrincipia.com

 

1.13.    Extended Cosmic Censorship Hypotheses

 

 

The following is an attempt by the author at conceptualizing, postulating, and extending the Cosmic Censorship hypotheses, so that the contradictions of the Penrose–Hawking–Thorne two Weak and Strong Cosmic Conjectures could be eliminated; and that all singularity theorem conditions, could be accounted for.

 

These newly added “Cosmic Censorships” also extends the Special Relativity postulates of Einstein.

 

The Cosmic Censorship hypothesis was first formulated by Roger Penrose in 1969, and it has yet to be stated in a completely mathematical or conceptually formalized way; like the approach described in this work.

 

This work is aimed at a more formal statement, that is mathematically and physically reasonable, and that can be proved to be true or false; and likewise is described in such a way that the “Cosmic Censorships” are generally interesting.

 

The following aphorisms are meant to extend the Weak and the Strong Cosmic Censorship hypotheses, and Einstein’s Special Relativity postulates:

 

 

Aphorism 1.1:          The Cosmic Censorship claims or conjectures that all singularities: “Physical, Naked, and Inverse Distance Power Law Singularities” are manifested on Cosmological and Quantum Mechanical scales; including the “Big Bang Singularity”.

 

 

Aphorism 1.2:          The Cosmic Completeness Censorship claims or conjectures that there are no Null geodesics of a manifold of infinite extension, which end in “Singularities”, in Euclidean and Minkowski, “Flat Space” Metric geometry; where geodesics end in Null geodesics, or smooth space-time manifolds (clip_image498). The Null geodesics of a manifold of infinite extension described by Non-Euclidean Spherically/Hyperbolically Symmetric Metric geometry ends incomplete, in “Physical or Naked Black Hole Singularities” (clip_image500). Null Geodesics of infinite extension are completely “Covariant” for all observers.

 

 

Aphorism 1.3:          The Cosmic Incompleteness Censorship claims or conjectures that all geodesics of infinite extension, including manifolds, are described by Non-Euclidean Spherically/Hyperbolically Symmetric Metric geometry, which ends incomplete (clip_image502), in “Physical or Naked Black Hole Singularities”. Geodesics of infinite extension are incompletely “Covariant” for all observers.

 

 

 

Aphorism 1.4:          The Cosmic “Naked” Censorship claims or conjectures that only “Inverse Distance Power Law Singularities” and “Naked Singularities” exist in the universe; including the “Big Bang Singularity”. “Naked Singularities” are open to the universe, and do not have any Black Hole Event Horizons enclosing them.

 

 

 

Aphorism 1.5:          The Cosmic “Black Hole” Censorship claims or conjectures that only “Inverse Distance Power Law Singularities” and “Physical Singularities” exist in the universe; including the “Big Bang Singularity”. “Physical Singularities” exists within spherical Black Hole Event Horizons enclosures.

 

 

 

 

Aphorism 1.6:          The Weak Cosmic Censorship claims or conjectures that no “Naked Singularities” can exist in nature, other than the “Big Bang Singularity”. Only “Physical Singularities” exists within Black Hole Event Horizons enclosures; the only exception is the “Big Bang Singularity”.

 

 

 

 

Aphorism 1.7:          The Cosmic “Conundrum” Censorship claims or conjectures that “Inverse Distance Power Law Singularities” describe infinitely large values (clip_image036), and the “Physical Singularities” (clip_image468) describe infinitely small values, and the “Naked Singularities”           (clip_image470) describe infinitely large values, of space, space-time, gravitational field, or the electrostatic field, in the same location of zero radius (clip_image012); what are the implications? Is the singularity measurable?

 

 

Aphorism 1.8:          The Strong Cosmic Censorship claims or conjectures that that General Relativity “Metric” Theory (clip_image090) is a measurable and deterministic theory (clip_image472), and is predictable from all data, including the initial data with zero radius (clip_image012) and would continue to be predictable with all other radius values, including final data at infinite radius (clip_image474).

 

 

 

 

Aphorism 1.9:          The Strong Cosmic “Most Probable” Censorship claims or conjectures that that General Relativity “Metric” Theory    (clip_image476) is a completely measurable and deterministic theory, only within a certain range, and is not predictable from the initial data, with zero radius (clip_image012), and the final data, where radius equals to infinity (clip_image147), and would only be predictable and deterministic, with all other radius values, between the initial and final input values (clip_image478).

 

 

 

Aphorism 1.10:        The Strong “Coordinate Singularity” Censorship claims or conjectures that the “Coordinate Singularity” located at the Schwarzschild Radius (clip_image505) is a mathematical anomaly, and can be eliminated with proper mathematical resolution; thereby making the General Relativity “Schwarzschild Metric” Theory (clip_image090) measurable, and predictable, at the Black Hole Event Horizon.

 

 

 

Aphorism 1.11:        The Cosmic “Particle Creation” Censorship claims or conjectures that Physical, Naked, and Inverse Power Law Singularities, except for the Big Bang Singularity, can be created around condensing matter, or static charge; and likewise, can be annihilated in the form of heat radiation electromagnetic energy, back into the surrounding universe; therefore all singularities are present where there is rest mass.

 

 

 

Aphorism 1.12:        The Cosmic “Photon Energy” Censorship claims or conjectures that propagating “Photons” of electromagnetic energy void of rest mass, have “Singularities” along every point of its wavelength; therefore, Propagating Photons do not have singularities of any kind.

 

 

 

Aphorism 1.13:        The Cosmic “Universal Constants” Censorship claims or conjectures that independent of linear, curvilinear, or rotational motion of any frame of reference, all the “Universal Constants” (i.e. Speed of Light Constant (clip_image507), Universal Gravitational Constant (clip_image509), Planck’s Quantum of Action (clip_image511) Constants, etc., are “Frame of Reference Invariant”, and remain the same everywhere in the universe, and in all frames of reference; and universal constants do not change over time, and have been the same, since the initial conditions at the very beginning of the Universe.

 

 

 

Aphorism 1.14:        The Cosmic “Universal Physical Law” Censorship claims or conjectures that independent of linear, curvilinear, or rotational motion, or any location in the universe, all the “Universal Laws of Physics”, remain the same everywhere in the universe, and in all frames of reference.

 

 

 

Aphorism 1.15:        The Cosmic “Big Bang” Censorship claims or conjectures that the Universe has an origin, birth, or beginning initial state, known as the “Big Bang”, whose evolution and current state, can be described by predictable physics.

 

 

 

Aphorism 1.16:        The Cosmic “Immortal Existence” Censorship claims or conjectures that the Universe is Immortal, has always been, has always existed, and there is no “Big Bang”, origin of the universe, only current evolution and current state, can be described by predictable physics.

 

 

 

2.   Conclusion

 

 

This work, described five (5) different types or classifications of “Singularities” in nature: the Inverse Distance Power Law Singularity, the Physical Singularity, the Naked Singularity, the Coordinate Singularity, and the Big Bang Singularity. Correlating the nature of these singularities, with the mathematics, and with the real physical world is a conundrum in physics.

 

This work extends the “Strong and Weak Cosmic Censorship” hypotheses originally proposed by Roger Penrose, Steven Hawking, and Kip Thorne, by adding additional “Censorships” which removes some of the contradiction that exists with just the two (2) original “Weak and Strong Cosmic Censorship Hypotheses” alone.

 

The Cosmic Censorship hypothesis was first formulated by Roger Penrose in 1969, and it has yet to be stated in a completely mathematical or conceptually formalized way; like the approach described in this work.

 

The current state of the discussion of the “Cosmic Censorship” in the physics community is to approach the censorships more like a research program thesis or proposal. This work aimed at more formal statements of the “Cosmic Censorship Conjectures” which is mathematically and physically reasonable, can be proved to be true or false, and be interesting to discuss for many years.

 

The extension of the “Cosmic Censorships” also extends Einstein’s Special Relativity postulates, and opens the door for a real discussion about Black Holes, Singularities, Big Bangs, and the nature of matter.

 

This work addressed the difference between a Black Hole “Physical Singularity” which is described mathematically by a Non-Euclidean Spherically Symmetric “Schwarzschild” Metric equation, and the Black Hole “Naked Singularity”, described mathematically by the Non-Euclidean Hyperbolically Symmetric “Kruskal-Szekeres” Metric equation.

 

The author believes that space, space-time, and the gravitational field surrounding condensed matter, is spherical/elliptically symmetric, and is better described by the Schwarzschild Metric, with a mathematical correction for the Coordinate Singularity; and does not believe that space is naturally hyperbolically symmetric surrounding condensed matter, as described by the Kruskal-Szekeres Metric.

 

This work, addressed the concept of “Geodesic Incompleteness” and “Geodesic Completeness”.

 

It was demonstrated in this work that the “Geodesic Incompleteness” conjectures, that Geodesics of infinite extension are incompletely “Covariant” for all observers. The “Geodesic Incompleteness”, is another name for a geodesic with infinite curvature, which at one end of the geodesic is a singularity.

 

The Cosmic Incompleteness Censorship” likewise, claims or conjectures that all geodesics of infinite extension, including manifolds, are described by Non-Euclidean Spherically/Hyperbolically Symmetric Metric geometry, which ends incomplete (clip_image502), in “Physical or Naked Black Hole Singularities”.

 

Further, it was demonstrated that the “Geodesic Completeness” conjectures, that Null Geodesics of infinite extension are completely “Covariant” for all observers. The “Geodesic Completeness” also predicts that the Metric geometry for the Null geodesics of a manifold of infinite extension, are given by the range (clip_image438). Except for the Minkowski Metric which ends, not complete in zero, ends complete in a smooth manifold metric, given by the range (clip_image514).

 

This work revealed that there is a conundrum in physics regarding all “Singularities”. The physics and the mathematics predict that there are “Physical Singularities” or “Naked Singularities” and “Inverse Distance Power Law Singularities” in the physical same location.

 

And the author raises the question mathematically, about different types of singularities in the same location, without giving an answer, for what this means for physics and measurement of singularities?

 

The author leaves a question remaining, after reading this work; what type of singularity is the “Big Bang Singularity”? Is the Big Bang Singularity similar to aforementioned classification of singularities, or is it different from the “Physical Singularities”, “Naked Singularities”, or “Inverse Distance Power Law Singularities”?

 

The following statements conceptually summarize some of the discussion in this work:

 

·         At the origin-center (clip_image516) of any mass or charged body, there exist Physical Singularity that is infinitely small, and at the same location there exists an Inverse Distance Power Law Singularity that is infinitely large.

·         At the infinite distance (clip_image028) away from the center of any mass or charged body, there exist Non-Euclidean Metric that is infinitely large, and at the same location there exists an Inverse Distance Power Law that is infinitely small, zero, or negligible.

 

 

·         A Physical Singularity is enclosed by a Black Hole Event Horizon Surface or Volume; and is described by Spherical and Elliptical Conic sections and symmetry.

 

 

·         A Naked Singularity does not have a Black Hole Event Horizon Surface or Volume enclosing the singularity, and is open; and is described by Hyperbolic Conic sections and symmetry.

 

 

·         A Coordinate Singularity is an anomaly, and is located at the Black Hole Event Horizon Surface or Volume enclosing a secondary “Physical singularity” at the center of the Black Hole; and is not necessary, and can be eliminated from the mathematics of the Non-Euclidean Spherically Symmetric Metrics.

 

 

·         The Big Bang Singularity is not fully explained and could be a “Physical Singularity” or a “Naked Singularity” or neither!

 

 

·         A Physical/Naked Singularity at the center of a “Gravitational” or “Electromagnetic” field system body, has no impact whatsoever, on any mass or charged body being at rest, being in uniform motion, being accelerated, or from interacting with equal and opposite forces with other mass or charge, in the physical universe.

 

 

3.   Appendix – 1 ─ Original Bet on Naked Singularities: Stephen W. Hawking, John P. Preskill, Kip S. Thorne

 

 

In 1991, John Preskill and Kip Thorne bet against Stephen Hawking that nature would never produce a Naked Singularity.

 

Source: http://www.theory.caltech.edu/people/preskill/old_naked_bet.html

 

 

Whereas Stephen W. Hawking firmly believes that naked singularities are an anathema and should be prohibited by the laws of classical physics,

 

And whereas John Preskill and Kip Thorne regard naked singularities as quantum gravitational objects that might exist unclothed by horizons, for all the Universe to see,

 

Therefore Hawking offers and Preskill/Thorne accept, a wager with odds of 100 pounds sterling to 50 pounds sterling, that

 

 

“When any form of classical matter or field that is incapable of becoming singular in flat spacetime is coupled to general relativity via the classical Einstein equations, the result can never be a naked singularity.”

 

 

The loser will reward the winner with clothing to cover the winner’s nakedness. The clothing is to be embroidered with a suitable concessionary message.

 

Stephen W. Hawking, John P. Preskill, Kip S. Thorne

 

Pasadena, California, 24 September 1991

 

Conceded on a technicality by Stephen W. Hawking, 5 February 1997

 

 

 

4.   Appendix – 2 ─ New Bet on Naked Singularities: Stephen W. Hawking, John P. Preskill, Kip S. Thorne

 

 

In 1997 Hawking conceded the bet, which he characterized as “technicalities”. Hawking later reformulated the bet to exclude those technicalities. The revised bet is still open.

 

Source: http://www.theory.caltech.edu/people/preskill/new_naked_bet.html

 

 

Whereas Stephen W. Hawking (having lost a previous bet on this subject by not demanding genericity) still firmly believes that naked singularities are an anathema and should be prohibited by the laws of classical physics,

 

And whereas John Preskill and Kip Thorne (having won the previous bet) still regard naked singularities as quantum gravitational objects that might exist, unclothed by horizons, for all the Universe to see,

 

Therefore Hawking offers, and Preskill/Thorne accept, a wager that

 

 

“When any form of classical matter or field that is incapable of becoming singular in flat spacetime is coupled to general relativity via the classical Einstein equations, then A dynamical evolution from generic initial conditions (i.e., from an open set of initial data) can never produce a naked singularity
(a past-incomplete null geodesic from scri-plus).”

 

 

The loser will reward the winner with clothing to cover the winner’s nakedness.  The clothing is to be embroidered with a suitable, truly concessionary message.

 

Stephen W. Hawking, John P. Preskill, Kip S. Thorne

 

Pasadena, California, 5 February 1997

 

 

 

5.   Appendix – 3 ─ Table of Cosmic Censorship Hypotheses and the Author’s Viewpoint

 

Table of Cosmic Censorship Hypotheses, and the author’s viewpoint

 

Aphorisms

Cosmic Censorship Hypotheses

Kemp’s

Viewpoint

Aphorism 1.1

Cosmic Censorship

The Cosmic Censorship claims or conjectures that all singularities: “Physical, Naked, and Inverse Distance Power Law Singularities” are manifested on Cosmological and Quantum Mechanical scales; including the “Big Bang Singularity”.

Yes.  I agree

Aphorism 1.2

Cosmic Completeness Censorship

The Cosmic Completeness Censorship claims or conjectures that there are no Null geodesics of a manifold of infinite extension, which end in “Singularities”, in Euclidean and Minkowski, “Flat Space” Metric geometry; where geodesics end in Null geodesics, or smooth space-time manifolds (clip_image002). The Null geodesics of a manifold of infinite extension described by Non-Euclidean Spherically/Hyperbolically Symmetric Metric geometry ends incomplete, in “Physical or Naked Black Hole Singularities” (clip_image004). Null Geodesics of infinite extension are completely “Covariant” for all observers.

Yes. I agree

Aphorism 1.3

Cosmic Incompleteness Censorship

The Cosmic Incompleteness Censorship claims or conjectures that all geodesics of infinite extension, including manifolds, are described by Non-Euclidean Spherically/Hyperbolically Symmetric Metric geometry, which ends incomplete (clip_image006), in “Physical or Naked Black Hole Singularities”. Geodesics of infinite extension are incompletely “Covariant” for all observers.

Yes. I agree

Aphorism 1.4

Cosmic “Naked” Censorship

The Cosmic “Naked” Censorship claims or conjectures that only “Inverse Distance Power Law Singularities” and “Naked Singularities” exist in the universe; including the “Big Bang Singularity”. “Naked Singularities” are open to the universe, and do not have any Black Hole Event Horizons enclosing them.

No. I disagree

Aphorism 1.5

Cosmic “Black Hole” Censorship

The Cosmic “Black Hole” Censorship claims or conjectures that only “Inverse Distance Power Law Singularities” and “Physical Singularities” exist in the universe; including the “Big Bang Singularity”. “Physical Singularities” exists within spherical Black Hole Event Horizons enclosures.

Yes. I agree

Aphorism 1.6

Weak Cosmic Censorship

The Weak Cosmic Censorship claims or conjectures that no “Naked Singularities” can exist in nature, other than the “Big Bang Singularity”. Only “Physical Singularities” exists within Black Hole Event Horizons enclosures; the only exception is the “Big Bang Singularity”.

Yes. I agree

Aphorism 1.7

Cosmic “Conundrum” Censorship

The Cosmic “Conundrum” Censorship claims or conjectures that “Inverse Distance Power Law Singularities” describe infinitely large values (clip_image008), and the “Physical Singularities” (clip_image010) describe infinitely small values, and the “Naked Singularities” (clip_image012) describe infinitely large values, of space, space-time, gravitational field, or the electrostatic field, in the same location of zero radius (clip_image014); what are the implications? Is the singularity measurable?

I agree. But, I will add that I don’t think that singularities are actually measurable.

Aphorism 1.8

Strong Cosmic Censorship

The Strong Cosmic Censorship claims or conjectures that that General Relativity “Metric” Theory (clip_image016) is a measurable and deterministic theory (clip_image018), and is predictable from all data, including the initial data with zero radius (clip_image014) and would continue to be predictable with all other radius values, including final data at infinite radius (clip_image020).

No. I disagree.

Aphorism 1.9

Strong Cosmic “Most Probable” Censorship

The Strong Cosmic “Most Probable” Censorship claims or conjectures that that General Relativity “Metric” Theory    (clip_image022) is a completely measurable and deterministic theory, only within a certain range, and is not predictable from the initial data, with zero radius (clip_image014), and the final data, where radius equals to infinity (clip_image024), and would only be predictable and deterministic, with all other radius values, between the initial and final input values (clip_image026).

Yes. I agree.

Aphorism 1.10

Strong “Coordinate Singularity” Censorship

The Strong “Coordinate Singularity” Censorship claims or conjectures that the “Coordinate Singularity” located at the Schwarzschild Radius (clip_image028) is a mathematical anomaly, and can be eliminated with proper mathematical resolution; thereby making the General Relativity “Schwarzschild Metric” Theory (clip_image016) measurable, and predictable, at the Black Hole Event Horizon.

Yes. I agree. There are mathematical solutions to the coordinate singularity. I don’t know why they are not popular.

Aphorism 1.11

Cosmic “Particle Creation” Censorship

The Cosmic “Particle Creation” Censorship claims or conjectures that Physical, Naked, and Inverse Power Law Singularities, except for the Big Bang Singularity, can be created around condensing matter, or static charge; and likewise, can be annihilated in the form of heat radiation electromagnetic energy, back into the surrounding universe; therefore all singularities are present where there is rest mass.

Yes. I agree. I believe that a singularity is the result of condensing of matter in a gravity vortex.

Aphorism 1.12

Cosmic “Photon Energy” Censorship

The Cosmic “Photon Energy” Censorship claims or conjectures that propagating “Photons” of electromagnetic energy void of rest mass, have “Singularities” along every point of its wavelength; therefore, Propagating Photons do not have singularities of any kind.

Yes. I agree. It does not make sense that a photon has a singularity, because there are possible three or more centers for a photon.

Aphorism 1.13

Cosmic “Universal Constants” Censorship

The Cosmic “Universal Constants” Censorship claims or conjectures that independent of linear, curvilinear, or rotational motion of any frame of reference, all the “Universal Constants” (i.e. Speed of Light Constant (clip_image030), Universal Gravitational Constant (clip_image032), Planck’s Quantum of Action (clip_image034) Constants, etc., are “Frame of Reference Invariant”, and remain the same everywhere in the universe, and in all frames of reference; and universal constants do not change over time, and have been the same, since the initial conditions at the very beginning of the Universe.

Yes. I agree.

Aphorism 1.14

Cosmic “Universal Physical Law” Censorship

The Cosmic “Universal Physical Law” Censorship claims or conjectures that independent of linear, curvilinear, or rotational motion, or any location in the universe, all the “Universal Laws of Physics”, remain the same everywhere in the universe, and in all frames of reference.

Yes. I agree

Aphorism 1.15

Cosmic “Big Bang” Censorship

The Cosmic “Big Bang” Censorship claims or conjectures that the Universe has an origin, birth, or beginning initial state, known as the “Big Bang”, whose evolution and current state, can be described by predictable physics.

Yes. I agree

Aphorism 1.16

Cosmic “Immortal Existence” Censorship

The Cosmic “Immortal Existence” Censorship claims or conjectures that the Universe is Immortal, has always been, has always existed, and there is no “Big Bang”, origin of the universe, only current evolution and current state, can be described by predictable physics.

No. I disagree.

 

 

 

6.   Appendix – 4 ─ Table of Universal Constants

 

 

Table of Universal Constants

 

Table of Universal Constants

Constant’s Name

Symbol

Constant Value

Units

Stephan Boltzmanns Constant

clip_image518

5.670400474E-08

clip_image520clip_image522

Boltzmann’s Energy Constant

clip_image524

1.380650400E-23

clip_image526

Speed of Light

clip_image528

2.997924580E+08

clip_image530

Plancks Constant

clip_image511

6.626068960E-34

clip_image532

Universal Gravitational Constant

G

6.6742800E-11

clip_image534

Black Hole Linear Mass Density

clip_image536

6.73297478332358E+26

clip_image538

Dark Vacuum Force

clip_image540

3.0256479774082E+43

clip_image542

 

 

 

 

References

 

 

[1]        The Nature of Space and Time, Steven Hawking (September 30, 1994) http://arxiv.org/pdf/hep-th/9409195v1.pdf

 

 

[2]        Penrose Hawking Singularity Theorems

http://en.wikipedia.org/wiki/Penrose-Hawking_singularity_theorems

 

 

[3]        Cosmic Censorship Hypothesis

http://en.wikipedia.org/wiki/Cosmic_censorship_hypothesis

[4]        K.S. Thorne, “Validity in General Relativity of the Schwarzschild Criterion for Convection,” Astrophysical Journal, 144, 201-205 (1966)

 

[5]        K. S. Thorne, “Warping Spacetime,” in The Future of Theoretical Physics and Cosmology: Celebrating Stephen Hawking’s 60th Birthday, edited by G.W. Gibbons, S.J. Rankin and E.P.S. Shellard (Cambridge University Press, Cambridge, England, 2003), Chapter 5, pp. 74-104; Chinese translation in Sixty Years in a Nutshell (Hunan Science and Technology Press, Hunan, China, 2005).

 

[6]        Penrose, Roger: “The Question of Cosmic Censorship”, Chapter 5 in Black Holes and Relativistic Stars, Robert Wald (editor), (1994) (ISBN 0-226-87034-0)

 

[7]        Penrose, Roger: “Singularities and time-asymmetry”, Chapter 12 in General Relativity: An Einstein Centenary Survey (Hawking and Israel, editors), (1979), see especially section 12.3.2, pp. 617–629 (ISBN 0-521-22285-0)

 

[8]        Kruskal Szekeres Coordinates

http://en.wikipedia.org/wiki/Kruskal%E2%80%93Szekeres_coordinates

 

 

[9]        Encyclopedia of Distance – (Kruskal-Szekeres Coordinates), Michel Marie Deza and Elena Deza, (Second Edition 2013) – Springer – ISBN 978-3-642-30958-8, Library of Congress Control Number 2012951148

[10]      An Introduction to Black Holes, Sanjeev S. Seahra (February 6, 2006)http://www.math.unb.ca/~seahra/resources/notes/black_holes.pdf

 

 

 

[11]      Physical Acceptability of Isolated, Static, Spherically Symmetric, Perfect Fluid Solutions of Einstein’s Equations, M.S.R. Delgaty and Kayll Lake1, Department of Physics, Queen’s University, Kingston Ontario, Canada K7L 3N6 (Dated: Septem 1998): http://arxiv.org/pdf/gr-qc/9809013v1.pdf

 

 

[12]      Generating perfect fluid spheres in general relativity, Petarpa Boonserm, Matt Visser, and Silke Weinfurtner, School of Mathematics, Statistics, and Computer Science, Victoria University of Wellington,PO Box 600, Wellington, New Zealand (Dated: March 2005 – February 6, 2008): http://arxiv.org/pdf/gr-qc/0503007v1.pdf(Pages: 13 – 16)

 

[13]      Karl Friedrich Gauss, General Investigations of Curved Surfaces of 1827 and 1825, The Project Gutenberg EBook of General Investigations of Curved Surfaces of 1827 and 1825, by Karl Friedrich Gauss: http://www.gutenberg.org/files/36856/36856-pdf.pdf

[14]      Gauss Law – Theorema Egregium:

            http://en.wikipedia.org/wiki/Theorema_Egregium

[15]      List of Differential Geometry Topics (Wikipedia): http://en.wikipedia.org/wiki/List_of_differential_geometry_topics

 

 

 

[16]      D.F. Lawden. Introduction to Tensor Calculus, Relativity and Cosmology; Dover Publications; 3 edition (January 27, 2003), ISBN 978-0486425405 pp. 6-10

[17]    Minkowski, Hermann (1907/8), “Die Grundgleichungen für die elektromagnetischen Vorgänge in bewegten Körpern“, Nachrichten von der Gesellschaft der Wissenschaften zu Göttingen, Mathematisch-Physikalische Klasse: 53–111 *** Wikisource translation: The Fundamental Equations for Electromagnetic Processes in Moving Bodies.

[18]      Einstein’s Paper: “Explanation of the Perihelion Motion of Mercury from General Relativity Theory”; Anatoli Andrei Vankov; IPPE, Obninsk, Russia; Bethany College, KS, USA:

 

 

 

[19]      Schwarzschild, K. (1916). “Über das Gravitationsfeld eines Massenpunktes nach der Einstein’schen Theorie”. Sitzungsberichte der Königlich Preussischen Akademie der Wissenschaften 1: 189–196: text of the original paper, in Wikisource:

 

 

[20]      Schwarzschild Geodesics:

            http://en.wikipedia.org/wiki/Schwarzschild_geodesics

 

 

[21]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics – The General Theory of Relativity.” ISBN 978-0-9841518-2-0, Flying Car Publishing Company, July 2010, pp. 20-21.

 

 

[22]      Inertial-Mass-Vortex-Gravitation-Theory-Continued-Part-3, Robert Louis Kemp (2011). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics, Flying Car Publishing Company

           

 

[23]      Total-Mechanical-Energy-Conservation-Escape-Velocity-Binding-Energy-Einstein-Field-Equation, Robert Louis Kemp (2012). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

[24]      A-Theory-Of-Gravity-For-The-21st-Century-The-Gravitational-Force-And-Potential-Energy-In-Consideration-With-Special-Relativity-General-Relativity, Robert Louis Kemp (2012). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

[24]      Newtonian-Self-Gravitational-Force-Video-Lecture, Robert Louis Kemp (2012). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

[26]      Conditions-For-The-Absence-And-Presence-Of-Matter-In-General-Relativity-Gr-Einstein-Field-Equations-Efes, Robert Louis Kemp (2012). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

[27]      What-Are-The-Mathematical-And-Physical-Concepts-Of-Flat-Euclidean-And-Curved-Non-Euclidean-Gravitational-Fields, Robert Louis Kemp (2013). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

[28]      The-Perfect-Fluid-Vacuum-Unified-Gravitation-Vortex-Model-And-Non-Euclidean-Spherically-Symmetric-Metrics, Robert Louis Kemp (2013). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

 

[29]      Algorithm For Describing Spherically-Symmetric Metrics Of A Gravitational Field – Using-Space-Time-Angle-Metric-Components-Metric-Coefficients, Robert Louis Kemp (2013). “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics

 

 

 

 

 

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Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field ─ Using Space, Time & Angle Metric Components & Metric Coefficients

Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field ─ Using Space, Time & Angle Metric Components & Metric Coefficients

 

 

 

By

Robert Louis Kemp

 

Super Principia Mathematica

The Rage to Master Conceptual & Mathematical Physics

 

www.SuperPrincipia.com

 

www.Blog.Superprincipia.com

 

Flying Car Publishing Company

P.O Box 91861

Long Beach, CA 90809

January 25, 2013

 

 

 

Abstract

 

 

This paper described a new algorithm, for “generalized mathematical formalism” of a “Spherically Symmetric Metric” (clip_image002), that describes the Euclidean Metric, Minkowski Metric, Einstein Metric, or the Schwarzschild Metric; using Three (3) Metric Components & Three (3) Metric Coefficients; and likewise using a general algorithm which is composed of, Two (2) Metric Components & Two (2) Metric Coefficients.

 

In this paper a general introduction to basic mathematical concepts for the geometric description of Euclidean “Flat-Space” Geometry and Non-Euclidean “Curved-Space” Geometry, and Spherically Symmetric Metric equations which are used for describing the causality and motion of the “Gravitational” interaction between mass with vacuum energy space, and the mass interaction with mass.

 

This paper gives a conceptual and mathematical description of the differential geometry, of flat and curved space, space-time, or gravitational fields, using the “metric theory” mathematics of Euclidean, Minkowski, Einstein, and Schwarzschild, Spherically Symmetric metrics, and geodesic line elements.

 

PDF – Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field ─ Using Space, Time & Angle Metric Components & Metric Coefficients

 

Keywords: General Relativity, Special Relativity, Einstein Field Equation, Gravitational Field, Black Hole Event Horizon, Spherically Symmetric Metric, Euclidean Geometry, Non-Euclidean Geometry, Minkowski Metric, Einstein Metric, Schwarzschild Metric, Physical Singularity, Coordinate Singularity, Perfect Fluid Vacuum Energy, Aether, Gravity, Space-time Curvature, Flat Space-time, Curved Space-time, Geodesic, Metric Theory of Gravitation,

 

 

Contents

 

·         1.0       Introduction

 

 

·         1.1       Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field Using – Three (3) Metric Components & Three Metric Coefficients

 

 

·         1.2       Euclidean “Flat Space” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

·         1.3       Minkowski “Flat Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

·         1.4       Schwarzschild “Curved Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

·         1.5       Einstein “Curved Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

·         1.6       “New” Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field Using – Two (2) Metric Components & Two (2) Metric Coefficients

 

  

 

1.   Introduction

 

 

This work is written to physicists that are interested in understanding from a conceptual view, the description of “Flat Geometry” Euclidean Space, or “Curved Geometry” Non-Euclidean Space, for describing causality for gravity motion, and the “Gravitational” interaction between mass with vacuum energy space, and the mass interaction with mass.

 

In this paper, I do weave some of my own theory, ideas, and mathematics into these well established physics concepts and mathematics; therefore, this work is written for those that have a very good basis and understanding, of the concepts of differential geometry, and General Relativity; to be able to distinguish what is newly proposed, and what is being discussed in general throughout this paper.

 

In this work I have limited the discussion only to the: Euclidean, Minkowski, Einstein, and Schwarzschild Spherically Symmetric Metrics, and geodesic line elements, of space, space-time, or the gravitational field, however there are many other geometric “metric” equations, and theories of gravitation, that are accepted by the mainstream physics. And there are many “Spherically Symmetric Metrics” that are in use in physics today.

 

In a paper written by M.S.R. Delgaty and Kayll Lake (1998) “Physical Acceptability of Isolated, Static, Spherically Symmetric, Perfect Fluid Solutions of Einstein’s Equations[1], they describe various “Spherically Symmetric Metrics” (clip_image002) equations.

 

M.S.R. Delgaty and Kayll Lake ”[1], state,

 

“It is fair to say then that most of the spherically symmetric perfect fluid “exact solutions” of Einstein’s field equations that are in the literature are of no physical interest.”

 

And likewise in a paper by, Petarpa Boonserm, Matt Visser, and Silke Weinfurtner (2005) “Generating perfect fluid spheres in general relativity[2], they describe that there are over 127 solutions to the “Spherically Symmetric Metrics”.

 

But only nine (9) of those “metric” equations satisfy the criteria for predicting actual physical measurable results.

 

The various “Spherically Symmetric Metric” (clip_image002), equations which are either Euclidean or Non-Euclidean, describes physical and observable results of gravitational interaction between mass and space, and between mass and mass, predicts that the vacuum energy, and inertial matter in motion interact, through a space, space-time, or gravitational field, that is either flat or curved, and surrounding a localized gravity source, that is either matter dependent, or matter independent, is described in the following sections of this paper.

 

The “Spherically Symmetric Metric” (clip_image002), and the “Geodesic Line Element” (clip_image005), are used for describing the “flat” or “curved” Differential Geometry of Space, Time, & Surfaces, of spherically symmetric space, space-time, or gradient gravitational field, in the presence or absence of condensed mass, matter, or energy.

 

Furthermore, the “Spherically Symmetric Metric” (clip_image002) can describe the space, space-time or a gravitational field, of or surrounding the: universe, stars, planets, galaxies, quasars, electrons, protons, neutrons, atoms, molecules, photons, etc…

 

In this work, a new algorithm, for “generalized mathematical formalism” of a “Spherically Symmetric Metric” (clip_image002), that describes the Euclidean Metric, Minkowski Metric, Einstein Metric, or the Schwarzschild Metric; using one general equation which is composed of, Three (3) Metric Components & Three (3) Metric Coefficients.

 

And likewise there is a general algorithm which is composed of, Two (2) Metric Components & Two (2) Metric Coefficients.

 

In future works, a new algorithm, that describes the Euclidean Metric, Minkowski Metric, Einstein Metric, or the Schwarzschild Metric using a general equation which is composed of:

 

·         Four (4) Metric Components & Four (4) Metric Coefficients

 

The Four (4) Metric Components & Four (4) Metric Coefficients algorithm is the current model used by the mainstream literature, and physics community; today.

 

  

1.1.       Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field Using – Three (3) Metric Components & Three (3) Metric Coefficients

 

 

A “Spherically Symmetric Metric” (clip_image002) is used for describing the “gravitational interaction” of a “flat” or “curved” Differential Geometry of Space, Time, & Surfaces, of spherically symmetric space, space-time, or gravitational field, in the presence or absence of condensed mass, matter or energy.

 

Next, a new algorithm, for “generalized mathematical formalism” of a “Spherically Symmetric Metric” (clip_image002), that describes the Euclidean Metric, Minkowski Metric, Einstein Metric, or the Schwarzschild Metric; using one general equation which is composed of, Three (3) Metric Components & Three (3) Metric Coefficients.

 

In the modern literature of General Relativity (GR), it is common mathematical formalism, to use a Einstein tensor mathematical expression, in order to describe, a generalized Spherically Symmetric (clip_image002).

 

Using the Einstein tensor mathematical expression of General Relativity, it also can satisfy the, Three (3) Metric Components & Three (3) Metric Coefficients, algorithm, for “generalized mathematical formalism” of a “Spherically Symmetric Metric” (clip_image002).

 

 

Spherically Symmetric Metric – Einstein “Tensor” Metric Expression

                                                                                                                                                                                                                                                  1.1 

clip_image007    ® clip_image009

 

 

The “Metric “Tensor” Coefficient” terms (clip_image011), can take on values of one (1) to four (4), in this algorithm:

·         Metric Coefficient (1) represents “space” ─ (clip_image013)

·         Metric Coefficient (2) represents “angular” “surface space” “latitude & longitude direction space”  ─ (clip_image015)

·         Metric Coefficient (3) represents “time” ─ (clip_image017)

For starters, let’s consider the following space, angle, and metric mathematical relations for a perfect fluid spherically symmetric gravitational field.

 

Differential Geometry “Individual” Cartesian & Spherical Coordinates, Radial Space, Latitude Space, and Longitude Space Metrics

                                                                                                                                                                                                                                                  1.1 

 

clip_image019

 

Differential Geometry – Cartesian & Spherical Coordinates, Surface Metrics

                                                                                                                                                                                                                                                  1.2 

 

 clip_image021

 

Black Hole Event Horizon – Schwarzschild Semi-Major Radius

                                                                                                                                                                                                                                                  1.3 

clip_image023      ® clip_image025

 

 Space-Time – Isotropic “square” Speed of Light

                                                                                                                                                                                                                                                  1.4 

clip_image027     ® clip_image029

 

 

Space-time – Square of the Speed of Space (Vacuum Energy Velocity)

                                                                                                                                                                                                                                                  1.5 

clip_image031     ® clip_image033

 

 

Next, we will present a new algorithm with a “classical mathematical” description of “generalized mathematical formalism” for describing the Spherically Symmetric Metric (clip_image035) that describes Differential Geometry of Space, Time, & Surfaces, of a perfect fluid, spherically symmetric space, space-time, or gravitational field.

 

Using either the Euclidean Metric, Minkowski Metric, Einstein Metric, or the Schwarzschild Metric, a Three (3) Metric Components & Three (3) Metric Coefficients, algorithm, for “generalized mathematical formalism” of a “Spherically Symmetric Metric” (clip_image002), is discussed below.

 

Three (3) Components & Three (3) Metric Coefficients Mathematical Form

 

The Metric Coefficients of the generalized Spherically Symmetric Metric (clip_image035), are given by the symbols (clip_image037).

 

The “Space” metric coefficient is given by the symbol (clip_image039).

 

The “Angular” metric coefficient is given by the symbol (clip_image041).

 

The “Time” metric coefficient is given by the symbol (clip_image043).

 

 

The Metric Components of the generalized Spherically Symmetric Metric (clip_image035), are given by the symbols (clip_image045).

 

The “Space” metric component is given by the symbol (clip_image047).

 

The “Angular” metric component is given by the symbol (clip_image049).

 

The “Time” metric component is given by the symbol (clip_image051).

 

The Spherically Symmetric Metric (clip_image035) describes Differential Geometry of Space, Time, & Surfaces, of a perfect fluid, spherically symmetric space, space-time, or gravitational field; given in its generalized three (3) components & three (3) metric coefficients mathematical forms, below:

 

Three (3) Components & Three (3) MetricCoefficients Mathematical Forms

 Spherically Symmetric Metric – function of (space, surface space, time)

– (clip_image053)

                                                                                                                                                                                                                                                  1.6 

clip_image055     ® clip_image009

 

 

Spherically Symmetric Metric – function of (space, surface angle, time)

 – (clip_image057)

                                                                                                                                                                                                                                                  1.7 

 

clip_image059     ® clip_image009

 

 

 

Spherically Symmetric Metric – function of (space, surface space, time)

– (clip_image062)

                                                                                                                                                                                                                                                  1.8 

 

clip_image064     ® clip_image009

 

 

 

Spherically Symmetric Metric – function of (space, angle, time)

– (clip_image066)

                                                                                                                                                                                                                                                  1.9 

 

 

clip_image068

 

 

 

 

Spherically Symmetric Metric – function of (Cartesian (x, y, & z) space, time)

– (clip_image070)

                                                                                                                                                                                                                                               1.10 

 

clip_image072

 

 

 Below is a table of various metric coefficients, which satisfy the Spherically Symmetric Metric (clip_image035)  equations and theories of gravitation given by: Euclidean “Flat Space”, Minkowski “Flat Space-Time”, Schwarzschild “Curved Space-time”, & Einstein “Curved Space-time”

  

Spherically Symmetric Metric Coefficients

Three (3) Components & Three (3) Metric Coefficients Math Form

“Super Principia” Metric Theory of Gravitation

 

clip_image055

 

clip_image068

 

 

Metric Coefficients

Space Coefficient

(clip_image039)

Angular Coefficient

(clip_image041)

Time Coefficient

(clip_image043)

Euclidean Metric

(Euclidean)

(Flat Space)

clip_image078

clip_image078

clip_image081

Minkowski Metric

(Pseudo-Euclidean)

(Flat Space-Time)

clip_image078

clip_image078

clip_image083

Schwarzschild Metric

(Non-Euclidean)

(Curved Space-Time)

clip_image085

 

clip_image078

clip_image087

Einstein

Metric

(Non-Euclidean)

(Static)

(Curved Space-Time)

clip_image085

 

clip_image078

clip_image083

 

The Square of the Speed of Light “Space-Time” Invariant, equation:

                                                                                                                                                                                                                                                  1.1 

clip_image090     ® clip_image029

 



Spherically Symmetric Metrics

Three (3) Metric Components & Three (3) Metric Coefficients Math Form

 “Super Principia” Metric Theory of Gravitation

clip_image055

 

Euclidean Metric

(Euclidean)

(Flat Space)

 

 

clip_image093

 

Minkowski Metric

(Pseudo-Euclidean)

(Flat Space-Time)

 

 

clip_image095

 

Einstein

Metric

(Non-Euclidean)

(Static)

(Curved Space-Time)

clip_image097

 

 

 

 

Schwarzschild Metric

(Non-Euclidean)

(Curved Space-Time)

clip_image099

 

 

 

 

 

  

1.2.       Euclidean “Flat Space” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

Next we will describe the Euclidean “Flat Space” Metric, its three (3) components and three (3) metric coefficients.

 

 

The Euclidean Metric Coefficients – Defined

                                                                                                                                                                                                                                                  1.2 

clip_image101

 

 

Euclidean Metric – Spherically Symmetric Metric (clip_image035)

                                                                                                                                                                                                                                                  1.3 

 

clip_image055

 

 

 

clip_image104

 

 

 

 

clip_image106    ® clip_image009

 

 

 

Substituting the metric coefficients

                                                                                                                                                                                                                                                  1.4 

 

clip_image108

 

 

 

 

clip_image110

 

 

 

 

clip_image112      ® clip_image009

 

 

The Euclidean Space in three-dimensional Cartesian vector space, with signature (+, +, +), (x, y, z).

                                                                                                                                                                                                                                                  1.5 

 

clip_image114     ® clip_image009

 

 

clip_image116 ® clip_image009

 

 

clip_image118

 

image

 

 

1.3.       Minkowski “Flat Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

Next we will describe the Minkowski “Flat Space-Time” Metric, its three (3) components and three (3) metric coefficients.

 

The Minkowski Metric Coefficients – Defined

                                                                                                                                                                                                                                                  1.6 

clip_image122

 

 

 

Minkowski Metric – Spherically Symmetric Metric (clip_image035)

                                                                                                                                                                                                                                                  1.7 

clip_image055

 

 

 

clip_image125      ® clip_image009

 

 

Substituting the metric coefficients

 

                                                                                                                                                                                                                                                  1.8 

clip_image127

 

 

  

clip_image129

 

 

 

clip_image131   ® clip_image009

 

 

From the above the Euclidean Metric is derived

 

Euclidean Metric – Spherically Symmetric Metric (clip_image035)

                                                                                                                                                                                                                                                  1.9 

clip_image133

 

 

The Euclidean and the Minkowski “Metrics” (clip_image035) and geodesic “line elements” (clip_image005), are “mass independent” equations that describe the causality of “flat” space, space-time, or the gravitational field.

 

Spherically Symmetric Metric – Euclidean Metric

                                                                                                                                                                                                                                                  1.1 

 

clip_image114     ® clip_image009

 

 Spherically Symmetric Metric – Minkowski “Pseudo-Euclidean” Metric

                                                                                                                                                                                                                                                  1.2 

 clip_image138   ® clip_image009

 

 

clip_image139

 

 

The limits of integration for the Euclidean and the Minkowski “Metrics” and geodesic “line elements” (clip_image005) is described below.

 

clip_image141 

 

On an orthonormal basis the Minkowski Space is also a four-dimensional Cartesian vector space with signature (−, +, +, +), (-t, x, y, z).

                                                                                                                                                                                                                                               1.10 

 

clip_image143     ® clip_image009

 

 

 

clip_image145 ® clip_image009

 

 

clip_image118

 

image

 

 

1.4.       Schwarzschild “Curved Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

Next we will describe the Schwarzschild Metric (Dynamic Vacuum Energy Condition), its three (3) components and three (3) metric coefficients.

 

The Schwarzschild Metric Coefficients – Defined

                                                                                                                                                                                                                                               1.11 

clip_image149

 

 

 

Schwarzschild Metric – Spherically Symmetric Metric (clip_image035)

                                                                                                                                                                                                                                               1.12 

clip_image055

 

 

 

clip_image064

 

 

 

clip_image153

 

 

Substituting the metric coefficients

 

 

clip_image155     ® clip_image157

 

clip_image159® clip_image009

 

 

 

 

On an orthonormal basis the Schwarzschild “Dynamic” Space is also a four-dimensional Cartesian vector space with signature (−, +, +, +), (-t, x, y, z).

                                                                                                                                                                                                                                               1.13 

 clip_image161 ® clip_image009

 

 

 

 

 

clip_image163

 

The “Schwarzschild” Spherically Symmetric Metric (clip_image035) “Dynamic Space-time” condition, corresponds to a gradient gravitational vortex system, where the, “Refraction/Condensing Pressure” (clip_image166) on the exterior surface, of the Black Hole Event Horizon, is zero; (clip_image168).

                                                                                                                                                                                                                                               1.14 

clip_image170

 

 

The “Schwarzschild” Spherically Symmetric Metric (clip_image035) for a “Static Vacuum Energy Space-time” predicts a “Physical Singularity” located at zero radius (clip_image173), and a “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image175), of the gradient gravitational field.

To avoid this problem the mainstream physics community has reject the “Schwarzschild” Spherically Symmetric Metric (clip_image035), in favor of: Kruskal–Szekeres coordinates, Eddington–Finkelstein coordinates, and Rindler coordinate; and which neither have a “Coordinate Singularity”.

 

The “Coordinate Singularity” is not a natural artifact for any Non-Euclidean metric. My goal is to find a solution to the “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image175), of the “Schwarzschild” Spherically Symmetric Metric (clip_image035).

 

If this “Coordinate Singularity”problem is resolved, the Schwarzschild metric is considered a valid description for the physical description of the curvature of space, space-time, or gradient gravitation field, surrounding, and in the presence of a condensed mass, matter, or energy of an isolated system mass body.

 

The Schwarzschild Metric (clip_image035) predicts the “Physical Singularity” located at zero radius, is a value that approaches zero, as the radius approaches zero. The “Physical Singularity” is a natural artifact for any Non-Euclidean metric.

                                                                                                                                                                                                                                               1.15 

clip_image178

clip_image159 ®clip_image009

                                                                                                                                                                                                                                               1.16 

clip_image181

 

 

 

 

 

The Schwarzschild Metric (clip_image002) “describes” a fluid dynamic vacuum, condition “Rarefaction/Condensing Pressure” of space, where the “Inertial Mass Gravitational Force of Attraction” and the “Isotropic Space-time Aether Gravitational Force of Attraction” interact, and where there is zero Rarefaction Pressure (clip_image183), on the surface of the Black Hole Event Horizon, for any isolated net inertial mass system body.

 

The Schwarzschild Metric (clip_image002) is a Spherically Symmetric Metric that is considered “Non-Euclidean”. The Schwarzschild Metric (clip_image002) describes the differential geometry of a “curved/warped” space-time or gravitational fields, in the presence of condensed mass and energy, for the following forces, energies, densities, and pressures:

 

clip_image185

 

 

“Dynamic” Inhomogeneous Gradient Gravitational Field ─ Volume Mass Density

 

clip_image187   ®  clip_image189

 

 

 

·         Dark Matter “Dynamic” – Rarefaction Mass Density, Force & Pressure

(Time Dependence)(clip_image191)

 

 

·         Dark Energy – Space Expansion & Gravitational Redshift

(Space Dependence)(clip_image193)

 

 

·        

Centrifugal/Centripetal Curvature/Rotation – Angular Momentum & Angular Velocity

(Angle & Space Invariance or Covariance)(clip_image195)

 

 

(clip_image197)     Then   (clip_image199)   And clip_image201

 

image

 

 

image

 

 

1.5.       Einstein “Curved Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

Next we will describe the Einstein Metric (Static Vacuum Energy Condition), its three (3) components and three (3) metric coefficients.

 

The Einstein Metric Coefficients – Defined

                                                                                                                                                                                                                                               1.17 

clip_image207

 

 

 

Einstein Metric – Spherically Symmetric Metric (clip_image035)

                                                                                                                                                                                                                                               1.18 

 

clip_image055

 

 

 

clip_image064

 

 

 

clip_image153

 

 

 

Substituting the metric coefficients

 

 

clip_image155     ® clip_image157

 

clip_image212  ® clip_image009

 

 

 

 

On an orthonormal basis the Einstein “Static” Space is also a four-dimensional Cartesian vector space with signature (−, +, +, +), (-t, x, y, z).

                                                                                                                                                                                                                                               1.19 

 

clip_image214 ® clip_image009

 

 

 

clip_image215

 

The “Einstein” Spherically Symmetric Metric (clip_image035) corresponds to a gradient gravitational vortex system, where the, Isotropic Aether Gravitational Field Pressure (clip_image217) is equal to twice (2) the “Inertial Mass towards Mass Gravitational Attraction” (clip_image219), on the exterior surface, of the Black Hole Event Horizon, and is non zero; (clip_image168).

                                                                                                                                                                                                                                               1.20 

 

clip_image221      ®  clip_image223

 

 

The “Einstein” Spherically Symmetric Metric (clip_image035) for a “Static Vacuum Energy Space-time” predicts a “Physical Singularity” located at zero radius (clip_image173), and a “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image175), of the gradient gravitational field.

 

 

To avoid this problem the mainstream physics community has reject the “Einstein” Spherically Symmetric Metric(clip_image035), in favor of: Kruskal–Szekeres coordinates, Eddington–Finkelstein coordinates, and Rindler coordinate; and which neither have a “Coordinate Singularity”.

 

The “Coordinate Singularity” is not a natural artifact for any Non-Euclidean metric. My goal is to find a solution to the “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image175), of the “Einstein” Spherically Symmetric Metric(clip_image035).

 

If this “Coordinate Singularity”problem is resolved, the Einstein metric is considered a valid description for the physical description of the curvature of space, space-time, or gradient gravitation field, surrounding, and in the presence of a condensed mass, matter, or energy of an isolated system mass body.

 

The Einstein Metric (clip_image035) predicts the “Physical Singularity” located at zero radius, is a value that approaches zero, as the radius approaches zero. The “Physical Singularity” is a natural artifact for any Non-Euclidean metric.

                                                                                                                                                                                                                                               1.21 

 

clip_image178

 

clip_image212  ® clip_image009

 

                                                                                                                                                                                                                                               1.22 

clip_image181

 

 

 

 

 

The Einstein Metric (clip_image002) “describes” a fluid dynamic vacuum, condition “Rarefaction/Condensing Pressure” of space, where the “Inertial Mass Gravitational Force of Attraction” and the “Isotropic Space-time Aether Gravitational Force of Attraction” interact, and where there is non-zero Rarefaction Pressure (clip_image227), on the surface of the Black Hole Event Horizon, for any isolated net inertial mass system body.

 

The Einstein Metric (clip_image002) is a Spherically Symmetric Metric that is considered “Non-Euclidean”. The Einstein Metric (clip_image002) describes the differential geometry of a “curved/warped” space-time or gravitational fields, in the presence of condensed mass and energy, for the following forces, energies, and pressures:

 

 

clip_image229

 

 

“Static” Inhomogeneous Gradient Gravitational Field ─ Volume Mass Density

 

clip_image231      ®  clip_image189

 

 

·         Dark Matter “Static” Aether “Light” Isotropic Pressure – Inhomogeneous Volume Mass Density (Time Dependence)(clip_image233)

 

 

·         Dark Energy – Space Expansion & Gravitational Redshift

(Space Dependence)(clip_image193)

 

 

·       

 Centrifugal/Centripetal Angular/Rotation – Angular Momentum & Angular Velocity

(Angle & Space Invariance or Covariance)(clip_image195)

 

 

 

 

(clip_image235)     Then   (clip_image199)   And clip_image201

 

image

 

 

image

 

 

 

1.6.       “New” Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field Using – Two (2) Metric Components & Two (2) Metric Coefficients

 

 

Next, we will describe “new” two (2) components mathematical formalism for describing the Spherically Symmetric Metric (clip_image035), which describes the Differential Geometry of Space, Time, & Surfaces, of a perfect fluid spherically symmetric space, space-time, or gravitational field; and where there are gravitational interaction in consideration.

 

The “new” forms of the “Spherically Symmetric Metrics” that produce physical and observable results, of matter in motion, through a space or space-time, that is either flat or curved; or has matter present or absent, in that space or space-time.  

 

Thus, we will consider only the following Spherically Symmetric Metrics:

 

·         Euclidean Metric – “Flat Space or Flat Space-time”

·         Minkowski Metric – “Flat Space-time” (Pseudo-Euclidean)

·         Schwarzschild Metric – “Dynamic Curved Space-time” (Non-Euclidean)

·         Einstein Metric – “Static Curved Space-time” (Non-Euclidean)

 

 

Using the Einstein tensor mathematical expression of General Relativity, it also can satisfy the, Two (2) Metric Components & Two (2) Metric Coefficients, algorithm, for “generalized mathematical formalism” of a “Spherically Symmetric Metric” (clip_image002).

 

Spherically Symmetric Metric – Einstein “Tensor” Metric Expression

                                                                                                                                                                                                                                                  1.2 

 

clip_image007    ® clip_image009

 

The “Metric “Tensor” Coefficient” terms (clip_image011), can take on values of one (1) to four (4), in this algorithm:

·         Metric Coefficient (1) represents “space-time” ─ (clip_image241)

·         Metric Coefficient (2) represents “surface space” “latitude & longitude direction space”  ─ (clip_image015)

The “new” Spherically Symmetric Metric (clip_image035) algorithm, describes the Differential Geometry of Space, & Surfaces for either the Euclidean Metric, Minkowski Metric, Einstein Metric, or the Schwarzschild Metric, with two (2) components & two (2) metric coefficients.

 

Two (2) Components & Two (2) Metric Coefficients Mathematical Form

 

The Metric Coefficients of the “new” Spherically Symmetric (clip_image035) Metric, are given by the symbols (clip_image243).

 

The “Space-time” metric coefficient is given by the symbol (clip_image245).

 

The “Angular” metric coefficient is given by the symbol (clip_image041).

 

 

The Metric Components of the generalized Spherically Symmetric Metric (clip_image035), are given by the symbols (clip_image045).

 

The “Space-time” metric component is given by (clip_image247).

The “Angular” metric component is given by the symbol (clip_image049).

 

The “Space-time” metric coefficient is given by the symbol (clip_image245), is a unit-less quantity that describes the amount of curvature in a localized region of space, space-time, or the gravitational field. The curvature is given by the “Metric Coefficient” (clip_image250)

 

If there is “curvature” in a space, space-time, or the gravitational field, then the “flat-space” “Euclidean” geometry is modified and becomes “Non-Euclidean”; and this is described mathematically by varying the value of the “Metric Coefficient” (clip_image250), and multiplying by the differential Radial (clip_image252) component; to get (clip_image254).

 

By varying the “Metric Coefficient” (clip_image250) value, the Spherically Symmetric Metric (clip_image002) is generalized, and can be used to describe the various metrics: Euclidean Metric, Minkowski Metric, Einstein Metric, Schwarzschild Metric, etc…

The “new” Spherically Symmetric Metric (clip_image035) describes Differential Geometry of Space, & Surfaces, of a perfect fluid, spherically symmetric space, space-time, or gravitational field; and is given in its generalized two (2) components & two (2) metric coefficients, mathematical forms below:

 

Two (2) Components & Two (2) Metric Coefficients Mathematical Form

 

Spherically Symmetric Metric – function of (space, surface angle)

 – (clip_image257)

                                                                                                                                                                                                                                               1.23 

clip_image259     ® clip_image009

 

 Spherically Symmetric Metric – function of (space, surface angle)

 – (clip_image261)

                                                                                                                                                                                                                                               1.24 

clip_image263      ® clip_image009

 

  Spherically Symmetric Metric – function of (space, surface space, time)

– (clip_image062)

                                                                                                                                                                                                                                               1.25 

 

clip_image265     ® clip_image009

 

 Spherically Symmetric Metric – function of (space, surface angle)

 – (clip_image267)

                                                                                                                                                                                                                                               1.26 

 

 

clip_image269    ® clip_image009

 

 

 Spherically Symmetric Metric – function of (Cartesian (x, y, & z) space)

– (clip_image271)

                                                                                                                                                                                                                                               1.27 

 clip_image273

 

 

Space-time Invariant – Square of the Speed of Light 

clip_image275     ® clip_image029

 

 

Space-time – Square of the Speed of Space (Vacuum Energy Velocity)

clip_image031     ® clip_image033

 

 

Spherically Symmetric Metric “Coefficients” – “Gaussian” Algorithm

Two (2) Components & Two (2) Metric Coefficients Math Form

“Super Principia” Metric Theory of Gravitation

 

 

clip_image259

 

Metric Coefficients

Space Coefficient

(clip_image245)

Angular Coefficient

(clip_image041)

Integration Limits

(clip_image279)

Euclidean Metric

(Euclidean)

(Flat Space)

clip_image078

clip_image078

clip_image281

Minkowski Metric

(Pseudo-Euclidean)

(Flat Space-Time)

clip_image283

 

clip_image078

clip_image285

Einstein

Metric

(Non-Euclidean)

(Static)

(Curved Space-Time)

clip_image287

 

 

clip_image078

clip_image289

Schwarzschild Metric

(Non-Euclidean)

(Curved Space-Time)

clip_image291

 

clip_image078

clip_image289

 



Spherically Symmetric Metric “Gaussian” Algorithm

Two (2) Metric Components & Two (2) Metric Coefficients Math Form

 “Super Principia” Metric Theory of Gravitation

 

 

clip_image259

 

Euclidean Metric

(Euclidean)

(Flat Space)

 

clip_image093

 

Minkowski Metric

(Pseudo-Euclidean)

(Flat Space-Time)

clip_image294

 

 

 

Einstein

Metric

(Non-Euclidean)

(Static)

(Curved Space-Time)

clip_image296

 

 

 

 

Schwarzschild Metric

(Non-Euclidean)

(Curved Space-Time)

clip_image298

 

 

 

 

Next, is a set of graphs of the various Euclidean and Non-Euclidean Spherically Symmetric Metrics (clip_image035) – Exterior & Interior Black Hole Event Horizon Solutions:

(clip_image300)  ;  (clip_image302)  ;  (clip_image304)

 

image

 

 

image

 

(clip_image300)  ;  (clip_image302)  ;  (clip_image310)

 

image

 

 

image

 

 

(clip_image300)  ;  (clip_image302)  ;  (clip_image316)

 

image

 

 

image

(clip_image300)  ;  (clip_image302)  ;  (clip_image322)

 

image

 

image

(clip_image300)  ;  (clip_image302)  ;  (clip_image328)

 

image

 

image

(clip_image300)  ;  (clip_image302)  ;  (clip_image334)

 

image

 

image

(clip_image300) ;  (clip_image302)  ;  (clip_image340)

 

image

image

 

 

2.   Conclusion

 

This work was written to physicists that are interested in understanding from a conceptual view, “Flat Geometry” Euclidean Space, and “Curved Geometry” Non-Euclidean Space; as a description for causality of gravity, or general motion in a gravitational field.

 

The Euclidean and the Minkowski “Euclidean” Metrics (clip_image035) describes the causality and geometry of the “flat” space, space-time, and the gravitational field; and is independent of the condensed mass, matter, or energy absent or present, in a localized region, of a space or space-time, or gradient gravitational field under consideration.

 

The Schwarzschild and the Einstein “Non-Euclidean” Metrics (clip_image035) describes the causality and geometry of the “curvature” of space, space-time, and the gravitational field, and is used in conjunction, with a fluid mechanical model, Perfect Fluid “Static or Dynamic” Vacuum Energy Solution for the causality gravitation; and is dependent of the condensed mass, matter, or energy absent or present, in a localized region, of a space or space-time, or gradient gravitational field under consideration.

 

It was demonstrated that the “Coordinate Singularity” (clip_image346) located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image175), is not a natural artifact for any Non-Euclidean metric; and is a problem to be solved.

 

If this “Coordinate Singularity”problem is resolved, the Schwarzschild and Einstein metrics are considered a valid description for the physical description of the curvature of space, space-time, or gradient gravitation field, surrounding, and in the presence of a condensed mass, matter, or energy of an isolated system mass body.

 

The “Physical Singularity” (clip_image348) located at zero radius (clip_image350), is a value that approaches zero, as the radius approaches zero. The “Physical Singularity” (clip_image346) is a natural artifact for any Non-Euclidean metric; and cannot be eliminated.

 

This paper described a new algorithm, for “generalized mathematical formalism” of a “Spherically Symmetric Metric” (clip_image002), that describes the Euclidean Metric, Minkowski Metric, Einstein Metric, or the Schwarzschild Metric; using an algorithm which is composed of, Three (3) Metric Components & Three (3) Metric Coefficients; and likewise an algorithm using Two (2) Metric Components & Two (2) Metric Coefficients.

 

In future works, a new algorithm, that describes the Euclidean Metric, Minkowski Metric, Einstein Metric, or the Schwarzschild Metric using a general equation which is composed of:

 

·         Four (4) Metric Components & Four (4) Metric Coefficients

 

The Four (4) Metric Components & Four (4) Metric Coefficients algorithm is the current model used by the mainstream literature, and physics community; today.

 

Below are the topics that were discussed in this paper:

 

 

·         1.1       Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field Using – Three (3) Metric Components & Three Metric Coefficients

 

 

·         1.2       Euclidean “Flat Space” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

·         1.3       Minkowski “Flat Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

·         1.4       Schwarzschild “Curved Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 

·         1.5       Einstein “Curved Space-Time” Spherically Symmetric Metric – Three (3) Metric Components & Three (3) Metric Coefficients – Algorithm

 

 1.6       “New” Algorithm for Describing Spherically Symmetric Metrics of a Gravitational Field Using – Two (2) Metric Components & Two (2) Metric Coefficients

 

 

References

 

 

[1]        Physical Acceptability of Isolated, Static, Spherically Symmetric, Perfect Fluid Solutions of Einstein’s Equations, M.S.R. Delgaty and Kayll Lake1, Department of Physics, Queen’s University, Kingston Ontario, Canada K7L 3N6 (Dated: Septem 1998): http://arxiv.org/pdf/gr-qc/9809013v1.pdf

 

 

[2]        Generating perfect fluid spheres in general relativity, Petarpa Boonserm, Matt Visser, and Silke Weinfurtner, School of Mathematics, Statistics, and Computer Science, Victoria University of Wellington,PO Box 600, Wellington, New Zealand (Dated: March 2005 – February 6, 2008): http://arxiv.org/pdf/gr-qc/0503007v1.pdf(Pages: 13 – 16)

 

[3]        Karl Friedrich Gauss, General Investigations of Curved Surfaces of 1827 and 1825, The Project Gutenberg EBook of General Investigations of Curved Surfaces of 1827 and 1825, by Karl Friedrich Gauss: http://www.gutenberg.org/files/36856/36856-pdf.pdf

 

 

[4]        Gauss Law – Theorema Egregium:

            http://en.wikipedia.org/wiki/Theorema_Egregium

 

 

[5]        List of Differential Geometry Topics (Wikipedia): http://en.wikipedia.org/wiki/List_of_differential_geometry_topics

 

 

[6]        D.F. Lawden. Introduction to Tensor Calculus, Relativity and Cosmology; Dover Publications; 3 edition (January 27, 2003), ISBN 978-0486425405 pp. 6-10

 

[7]        Minkowski, Hermann (1907/8), “Die Grundgleichungen für die elektromagnetischen Vorgänge in bewegten Körpern“, Nachrichten von der Gesellschaft der Wissenschaften zu Göttingen, Mathematisch-Physikalische Klasse: 53–111 *** Wikisource translation: The Fundamental Equations for Electromagnetic Processes in Moving Bodies. http://en.wikipedia.org/wiki/Differential_geometry_of_surfaces

 

 

[8]        List Of Differential Geometry Topics:

            http://en.wikipedia.org/wiki/List_of_differential_geometry_topics

[9]        Einstein’s Paper: “Explanation of the Perihelion Motion of Mercury from General Relativity Theory”; Anatoli Andrei Vankov; IPPE, Obninsk, Russia; Bethany College, KS, USA:

http://www.gsjournal.net/old/eeuro/vankov.pdf

 

[10]      Schwarzschild, K. (1916). “Über das Gravitationsfeld eines Massenpunktes nach der Einstein’schen Theorie”. Sitzungsberichte der Königlich Preussischen Akademie der Wissenschaften 1: 189–196: text of the original paper, in Wikisource: http://de.wikisource.org/wiki/%C3%9Cber_das_Gravitationsfeld_eines_Massenpunktes_nach_der_Einsteinschen_Theorie

 

[11]      Schwarzschild Geodesics:

            http://en.wikipedia.org/wiki/Schwarzschild_geodesics

 

 

 

[12]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics – The General Theory of Relativity.” ISBN 978-0-9841518-2-0, Flying Car Publishing Company, July 2010, pp. 20-21.

 

 

[13]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2011/12/23/inertial-mass-vortex-gravitation-theory-continued-part-3/

 

 

[14]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/01/28/total-mechanical-energy-conservation-escape-velocity-binding-energy-einstein-field-equation/

 

 

[15]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/01/16/a-theory-of-gravity-for-the-21st-century-the-gravitational-force-and-potential-energy-in-consideration-with-special-relativity-general-relativity/

 

 

 

[16]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/05/29/newtonian-self-gravitational-force-video-lecture/

 

 

[17]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/11/08/conditions-for-the-absence-and-presence-of-matter-in-general-relativity-gr-einstein-field-equations-efes/

 

 

[18]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2013/01/20/what-are-the-mathematical-and-physical-concepts-of-flat-euclidean-and-curved-non-euclidean-gravitational-fields/

 

 

[19]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2013/01/20/what-are-the-mathematical-and-physical-concepts-of-flat-euclidean-and-curved-non-euclidean-gravitational-fields/

 

 

[20]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2013/01/20/the-perfect-fluid-vacuum-unified-gravitation-vortex-model-and-non-euclidean-spherically-symmetric-metrics/

 

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The Perfect Fluid Vacuum Unified Gravitation Vortex Model and Non-Euclidean Spherically Symmetric Metrics

The Perfect Fluid Vacuum Unified Gravitation Vortex Model and Non-Euclidean Spherically Symmetric Metrics

 

 

 

By

Robert Louis Kemp

 

Super Principia Mathematica

The Rage to Master Conceptual & Mathematical Physics

 

www.SuperPrincipia.com

 

www.Blog.Superprincipia.com

 

Flying Car Publishing Company

P.O Box 91861

Long Beach, CA 90809

January 7, 2013

 

 

 

Abstract

  

This paper postulates a “Dark Matter Force and Pressure” and also gives a conceptual and mathematical description for the reason for choosing a “Vacuum Energy Perfect Fluid” model, and using the Schwarzschild Metric over the Einstein Metric, based on the concept of whether there is “Zero Pressure” impressed upon the surface of the Black Hole Event Horizon; And likewise, whether the “Volume Mass Density” and the curvature of space, space-time, or the gravitational field, surrounding a matter source is normal throughout the gradient of a gravitational field, or whether it is rarefied/condensed through the gradient of a gravitational field, and eventually becomes normal far away from the matter source.

 

In this paper a general introduction into the basic concepts of a “Perfect Fluid” gravitation theory, and this bodes for the necessity of Non-Euclidean “Curved-Space” Geometry, and Spherically Symmetric Metrics, used for describing causality for “Gravitational” interaction of mass with space or “isotropic aether” space-time, and mass interaction with mass.

PDFThe Perfect Fluid Vacuum Unified Gravitation Vortex Model and Non-Euclidean Spherically Symmetric Metrics

 

Keywords: General Relativity, Special Relativity, Einstein Field Equation, Gravitational Field, Heat Radiation Gravitation, Dark Energy Gravitation, Black Hole Event Horizon, Spherically Symmetric Metric, Euclidean Geometry, Non-Euclidean Geometry, Minkowski Metric, Einstein Metric, Schwarzschild Metric

 

 

Contents

·         1.0       Introduction

 

·         1.1       Vacuum Energy “Perfect” Fluid Mechanical Model – Rarefaction/Condensing Pressure and Density Conditions – For Describing Non-Euclidean Metrics

 

 

·         1.2       The Vacuum Energy “Perfect” Fluid Mechanical Model – Rarefaction/Condensing Pressure and Density Conditions – For Describing Non-Euclidean Metrics

 

 

·         1.3       Vacuum Energy “Perfect” Fluid Mechanical Model – Rationale for using the Rarefaction/Condensing Linear Mass Density and Gravitational Potential Energy Differential Equations – For Describing Non-Euclidean Metrics

 

 

·         1.4       Vacuum Energy “Perfect” Fluid Mechanical Model – Rationale for using Kepler’s Third Law of Motion (Evolutionary Attraction Rate) – For Describing Non-Euclidean Metrics

 

 

·         1.5       Vacuum Energy “Perfect” Fluid Mechanical Model – Gravitational Potential Energy Differential Equations – For Describing Non-Euclidean Metrics

 

 

·         1.6       Unified Gravitational Vortex Theory – Constituent Gravitational Forces – Inertial Mass Gravitational Attraction Force & Aether Gravitational Attraction Force

 

 

·         1.7       Unified Gravitational Vortex Theory – Composite Gravitational Force – Rarefaction/Condensing Force of Gravitation

 

 

1.   Introduction

 

This work is written to physicists that are interested in understanding from a conceptual view, the rationale for selecting “Flat Geometry” Euclidean Space, or selecting a “Curved Geometry” Non-Euclidean Space; as causality for gravity.

 

Likewise this work is written to physicists that are interested in understanding why a Schwarzschild Spherically Symmetric Metric is preferred over the Einstein Spherically Symmetric Metric of space, space-time, or the gravitational field; which is based on a particular choice of “pressure” and “density”.

 

A “Spherically Symmetric Metric” is used for describing the Differential Geometry of Space, Time, & Surfaces, of a “Vacuum Energy Perfect Fluid” model, of spherically symmetric space, space-time, or gravitational field.

 

In this paper, I do weave some of my own theory, ideas, and mathematics into these well established physics concepts and mathematics; therefore, this work is written for those that have a very good basis and understanding, of the concepts of differential geometry, and General Relativity; to be able to distinguish what is newly proposed, and what is being discussed in general throughout this paper.

 

For example, I present a new idea of “Constituent Forces and Pressures” of Gravitation, and the “Composite Forces and Pressures” of Gravitation. I specifically differentiate between a Newtonian or Self Gravitational Force, and an Isotropic Aether Gravitational Force.

 

In this paper, I introduce a new equations and conceptual rationale for an “Isotropic Rarefaction Force and Pressure of Gravitation”, that is postulated to exist, for any and every gravitational interaction system in the universe.

 

My goal is to bring the concepts of “Gravitation Force and Pressure” and the concept of Non-Euclidean curvature described by the differential geometry of the “Spherically Symmetric Metric” (clip_image002) of space, space-time, or a gravitational field, and due to the presence of mass or matter as the source of a gradient gravitational field, in a localized region of the universe, into correlation.

 

Furthermore, the “Spherically Symmetric Metric” (clip_image002) can describe the geometry of space, space-time or a gravitational field, of or surrounding the: universe, stars, planets, galaxies, quasars, electrons, protons, neutrons, atoms, molecules, photons, etc…

 

 

1.1.       The Vacuum Energy “Perfect” Fluid Mechanical Model – Constituent & Composite Gravitational Forces and Pressures Equations – Used For Describing Non-Euclidean Metrics

 

 

The Schwarzschild and the Einstein “Non-Euclidean” Metrics (clip_image004) describes the gravitational interaction, causality, and geometry of the curvature of space, space-time, and the gravitational field, and is used in conjunction, with a fluid mechanical model, Perfect Fluid “Static or Dynamic” Vacuum Energy Solution for the causality gravitation. The proposed model is the Unified Gravitation Vortex Theory.

clip_image006

This Unified Gravitation Vortex Theory describes a closed solution for cosmological and quantum mechanical effects, of matter in motion throughout the universe; and which a few components of the model will be described below.

 

A fluid mechanical, perfect fluid “vacuum energy” solution to gravitation, makes that claims that the “Single Newtonian Gravity Force – Only” solution to gravitation is abandoned; in favor of a gravitation theory, that describes “constituent” and “composite”: “forces”, “pressures” and “energies”; into a more unified theory of gravitation.

 

In this perfect fluid “vacuum energy” model there are constituent Gravitational Forces and Pressures: There is the Inertial Mass “Self” Gravitational Attraction Force & Pressure (clip_image008), and there is the Isotropic Aether Gravitational Attraction Force & Pressure    (clip_image010).

 

The physics of the composite Gravitational Force and Pressure is responsible for the Dark Matter, phenomena, and is known as the Isotropic Rarefaction Pressure of Gravitation (clip_image012), which describes the rarefying/condensing inhomogeneous and isotropic pressure, that is acting upon each and every one of the individual, infinite series of gradient spherical shell, energy potentials, of space, space-time, or gravitational field; where there is localized gravitational interaction, condensed matter, mass, and energy.

 

The Isotropic Rarefaction Pressure of Gravitation (clip_image014), and the Rarefaction Force of Gravitation (clip_image016), is a measure of the pressure and density difference between the “Isotropic Aether towards Mass Gravitational Attraction” and twice the “Inertial Mass towards Mass Gravitational Attraction”; where there is localized gravitational interaction, condensed matter, mass, and energy.

 

The Dark Matter, phenomena is postulated to be a result of this force, pressure and density difference, given by the Isotropic Rarefaction Pressure of Gravitation (clip_image014), which is defined as the ratio of the Rarefaction Force of Gravitation (clip_image018), divided by the gradient field, spherical surface area (clip_image020) of each of the infinite series of concentric, gradient spherical shells, of energy potentials, of space, space-time, or gravitational field.

The Schwarzschildfluid mechanical model, Perfect Fluid “Dynamic” Vacuum Energy Solution for the causality Dark Matter, phenomena  of gravitation, is given by the “composite” Isotropic Rarefaction Pressure of Gravitation (clip_image014), which is equal to the Isotropic Aether Gravitational Field Pressure (clip_image022) subtracted from twice (2) the Inertial (clip_image024) Mass Gravitational Field Pressure.

                                                                                                                                                                                                                                                  1.1 

clip_image026   ®  clip_image028

 

 

clip_image030

 

 

The “constituent” Isotropic Aether Gravitational “Attraction” Field Pressure

                                                                                                                                                                                                                                                  1.2 

clip_image032    ®  clip_image028

 

 

The “constituent” Inertial Mass Gravitational “Attraction” Field Pressure

                                                                                                                                                                                                                                                  1.3 

clip_image034     ®  clip_image028

 

 

The Schwarzschildsolution, predicts the following equation for the Isotropic Rarefaction Pressure of Gravitation (clip_image014).

                                                                                                                                                                                                                                                  1.4 

clip_image036®  clip_image028

 

Substituting the Inertial Volume Mass Density ─ (clip_image038)

                                                                                                                                                                                                                                                  1.5 

clip_image040

The Isotropic Rarefaction Pressure of Gravitation (clip_image014), is a measure of the pressure and density difference between the “Isotropic Aether towards Mass Gravitational Attraction” (clip_image042) and the two (2) times the “Inertial Mass towards Mass Gravitational Attraction” (clip_image044); where there is localized gravitational interaction, condensed matter, mass, and energy

 

The Schwarzschild “Non-Euclidean” Metric (clip_image004) describes a “dynamic” geometry and geodesic line element (clip_image046), that describes the curvature of space, space-time, and the gravitational field; and must be used in conjunction, with a fluid mechanical model, Perfect Fluid “Dynamic” Vacuum Energy Solution for the causality gravitation, as described above.

 

The Schwarzschildsolution, predicts that the following equation for the Isotropic Rarefaction Pressure of Gravitation (clip_image048), is non-zero in the gradient of the gravitational field; except at the “Black Hole Event Horizon” (clip_image050), and when the distance away from the center, of the localized gradient gravitational field, is infinite (clip_image052); there the Isotropic Rarefaction Pressure of Gravitation (clip_image054), is zero.

 

The Isotropic Rarefaction Pressure of Gravitation (clip_image014), is zero at the Black Hole surface, of a gravity vortex system body, and becomes approximately equal to the Isotropic Aether Gravitational (clip_image022) Field Pressure  at distances far away from the Black Hole Event Horizon, and into the infinity of space, relative to the center of the gravity vortex system body.

 

The following limits of integration apply to the Isotropic Rarefaction Pressure of Gravitation (clip_image014); 

clip_image057

 

 

 

1.2.       The Vacuum Energy “Perfect” Fluid Mechanical Model – Rarefaction/Condensing Pressure and Density Conditions – For Describing Non-Euclidean Metrics

 

 

The Einstein “Non-Euclidean” Metric (clip_image004) describes a “static” geometry and a line element, that describes the curvature of space, space-time, and the gravitational field; and must be used in conjunction, with a fluid mechanical model, Perfect Fluid “Static” Vacuum Energy Solution for the causality gravitation.

 

The Einsteinsolution, predicts the following equation for the “constituent” Isotropic Aether Gravitational Field Attraction Pressure (clip_image059)

                                                                                                                                                                                                                                                  1.6 

clip_image032     ®  clip_image028

 

Aether “Light” Gravitational “Aether to Mass” Attraction Force (Magnitude)

                                                                                                                                                                                                                                                  1.7 

clip_image063       ®  clip_image065

 

Substituting the Inertial Volume Mass Density ─ (clip_image038)

The Isotropic Aether Gravitational Field Attraction Pressure (clip_image059)

                                                                                                                                                                                                                                                  1.8 

clip_image068     ®  clip_image028

 

The Einsteinsolution, predicts that the “constituent” Isotropic Aether Gravitational Field “Attraction” Pressure varies in direct proportional to one third the Inertial Volume Mass Density of the gradient gravity field.

clip_image070 

 

The Einsteinsolution, predicts the following equation for the Isotropic Aether Gravitational Field Pressure (clip_image072); is non-zero; except at the infinite distance in the gradient gravitational field, away from the “Black Hole Event Horizon” (clip_image074), there the Isotropic Aether Gravitational Field Pressure (clip_image076) is equal to zero.

 

The Newtonsolution, predicts the following equation for the “constituent” Inertial Mass Gravitational Field “Attraction” Pressure (clip_image078);

                                                                                                                                                                                                                                                  1.9 

clip_image034     ®  clip_image028

 

Newtonian “Self” Gravitational “Mass to Mass” Attraction Force(Magnitude Only)

                                                                                                                                                                                                                                               1.10 

clip_image081     ®  clip_image065

Substituting the Inertial Volume Mass Density ─ (clip_image038)

 

The Inertial Mass Gravitational Field “Attraction” Pressure (clip_image083);

                                                                                                                                                                                                                                               1.11 

clip_image085     ®  clip_image028

 

 

The Newtonsolution, predicts that the “constituent” Inertial Mass Gravitational Field “Attraction” Pressure varies in direct proportional to one sixth the Inertial Volume Mass Density and multiplied by the distance ratio relative to the Black Hole Event Horizon (clip_image087), of the gradient gravity field.

clip_image089

The following limits of integration apply to the Isotropic Aether Gravitational Field Pressure (clip_image059);

 clip_image091

 

The “Schwarzschild” Spherically Symmetric Metric (clip_image004) corresponds to a gradient gravitational vortex system, where the, “Refraction/Condensing Pressure” (clip_image093) is zero, on the exterior surface, of the Black Hole Event Horizon; (clip_image095).

 

The “Schwarzschild Metric” Spherically Symmetric gradient gravitational field vortex system body, describes a dynamic “Refraction/Condensing Pressure” (clip_image097), which changes in direct proportion to one third, the Inertial Volume Mass Density (clip_image099), of the gradient gravitational vortex system body.

 

Isotropic Rarefaction Pressure of Gravitation (clip_image014) at Black Hole Event Horizon (clip_image095)

                                                                                                                                                                                                                                               1.12 

clip_image101

 

clip_image103

 

 

Substituting the Inertial Volume Mass Density ─ (clip_image038)

 

 

Isotropic Rarefaction Pressure of Gravitation (clip_image014) at Black Hole Event Horizon (clip_image095)

                                                                                                                                                                                                                                               1.13 

clip_image106

 

 

Substituting the Gradient Gravity Field – Black Hole Event Horizon – Semi-Major Radius ─ (clip_image095)

                                                                                                                                                                                                                                               1.14 

clip_image109

 

 

The “Einstein” Spherically Symmetric Metric (clip_image004) corresponds to a gradient gravitational vortex system, where the, “Refraction/Condensing Pressure” (clip_image111) on the exterior surface, of the Black Hole Event Horizon, is non zero; (clip_image095).

 

Isotropic Aether Gravitational Field Pressure (clip_image059) at Black Hole Event Horizon (clip_image095)

                                                                                                                                                                                                                                               1.15 

clip_image113     ®  clip_image028

clip_image115      ®  clip_image028

clip_image117

 

Next substituting the Gradient Gravity Field Inertial Volume Mass Density ─ (clip_image038), into the above equation; yields the following.

 

Isotropic Aether Gravitational Field Pressure (clip_image059) at Black Hole Event Horizon (clip_image095)

                                                                                                                                                                                                                                               1.16 

clip_image120      ®  clip_image028

 

clip_image122

 

 

Next substituting the Gradient Gravity Field – Black Hole Event Horizon – Semi-Major Radius (clip_image124), into the above equation; yields the following.

Isotropic Aether Gravitational Field Pressure (clip_image059) at Black Hole Event Horizon (clip_image095)

                                                                                                                                                                                                                                               1.17 

 clip_image126      ®  clip_image028

clip_image128 

 

 

 The “Einstein Metric” Spherically Symmetric gradient gravitational field vortex system body, describes a static “Refraction/Condensing (clip_image097) Pressure”, which changes in direct proportion to one third, the Inertial Volume Mass Density (clip_image130), of the gradient gravitational vortex system body.

 

The “Schwarzschild Metric” Spherically Symmetric gradient gravitational field vortex system body, describes a dynamic “Refraction/Condensing Pressure” (clip_image097), which changes in direct proportion to one third, the Inertial Volume Mass Density (clip_image132), of the gradient gravitational vortex system body.

 

Schwarzschildsolution, for the Isotropic Rarefaction Pressure of Gravitation (clip_image014)

                                                                                                                                                                                                                                               1.18 

clip_image134

 

clip_image136   ®  clip_image028

 

Therefore I believe that the Schwarzschild Solution is the correct solution where the, “Refraction/Condensing Pressure” (clip_image093) on the exterior surface, of the Black Hole Event Horizon, is zero; (clip_image095); and is non-zero everywhere else.

The Isotropic Rarefaction Pressure of Gravitation (clip_image014) is a fluid mechanical, rarefying/condensing “Dark Matter Isotropic Pressure Force, in an inhomogeneous gradient gravitational field, which reduces the pressure, forces, and densities, on individual spherical gradient gravitational energy potential surfaces; nearer to the surface of the Black Hole event horizon; and the rarefying densities and pressures, of the infinite series of surfaces, return to normal, located an infinite distance away from the black hole source of gravity.

clip_image138

 

 

 

 

The Isotropic Rarefaction Pressure of Gravitation (clip_image014) is responsible for the phenomena known as “Dark Matter” and is a rarefying pressure, decreasing and normalizing the gravitational densities, forces, and pressures, experienced by a test mass body (clip_image140), in the gradient gravitational field of a Net Inertial Mass/Matter (clip_image142) source, as it is moved “outward” through the gradient gravitation field, and is far away from the Black Hole Event Horizon, reaching into infinite distances of space.

 

And likewise the Isotropic Rarefaction Pressure (clip_image014) of Gravitation is responsible for the phenomena known as “Dark Matter” and is a condensing pressure, increasing the gravitational densities, forces, and pressures, experienced by a test mass body (clip_image140), in the gradient gravitational field of a Net Inertial Mass (clip_image142) source, as it is moved “inward” through the gradient gravitation field, from infinite distance, and towards the surface of the Black Hole Event Horizon, and center of the gravity field.

 

 

image

The graphs below give a closer zoomed in view of the area surrounding the Black Hole Event Horizon.

image

image

 

1.3.       Vacuum Energy “Perfect” Fluid Mechanical Model – Rationale for using the Rarefaction/Condensing Linear Mass Density and Gravitational Potential Energy Differential Equations – For Describing Non-Euclidean Metrics

 

 

A space-time continuum is where matter, space, and time become inherently intertwined or inseparable; and the speed of light (clip_image151) is constant, isotropic, and homogenous for all observers.

 

The “Mass-Energy Equivalence” in Special Relativity (SR), refers to the “Inertial Mass” of a system body; and is the concept that the mass of a body is a measure of its energy content, (clip_image153). And likewise, makes the claims that, whenever any type of energy (clip_image155) is removed from a system, the mass (clip_image157) associated with the energy (clip_image155) is also removed, and the system therefore loses mass (clip_image157).

 

The “Mass-Energy Equivalence” in Special Relativity (SR), which describes an “Inertial Mass” (clip_image160) system body, with the “Rest Energy” content, (clip_image162), means that if a system body gives off the energy in the form of electromagnetic heat radiation mass-energy, it’s “Inertial Mass” (clip_image160) also diminishes.

                                                                                                                                                                                                                                           1.19 

clip_image164

 

The “Principle of Equivalence” in General Relativity (GR), which describes a “Gravitational Mass” (clip_image160) system body, means that if a system body gives off the “gravitational field” energy in the form of electromagnetic heat radiation mass-energy, it’s “Gravitational Mass” (clip_image160) and “gravitational field” also diminishes.

                                                                                                                                                                                                                                               1.20 

clip_image167

 

Thus, the “Mass-Energy Equivalence” of Special Relativity (SR), combined with the “Equivalence Principle” of General Relativity (GR), makes the claims that the “gravitational” mass and the “inertial” mass are identical, or the same, for every object in nature.

clip_image169

Therefore, the “Mass-Energy Equivalence” of Special Relativity (SR), combined with the “Equivalence Principle” of General Relativity (GR), results in the prediction that all forms of energy contribute to the gravitational field, created by an object with mass or energy. And a space-time continuum is where matter, space, and time become inherently intertwined or inseparable.

 

In this concept, mass is a property of all energy, and energy is a property of all mass, and the two properties of “Mass” (clip_image157) and “Energy” (clip_image155), are connected, by the product of the “Gravitational Field Acceleration” (clip_image173), and the geometric “Area” (clip_image175) of space; equal to the square of the distance (clip_image177), measured relative to the center of mass of the system.

                                                                                                                                                                                                                                               1.21 

clip_image179

 

Furthermore, Mass-Energy Equivalence” of Special Relativity (SR), combined with the “Equivalence Principle” of General Relativity (GR), results in the prediction that the “gravitational field” energy, propagating in the form of “electromagnetic heat radiation” energy, is also a form of mass-energy.

 

clip_image181

 

The proof of this is the observational fact, due to the gravitational attraction, of “electromagnetic heat radiation” in the form of “light” bending, as it passes by the sun. This bending of light, where there is large mass/matter and gravitational field energy, was observed; and confirmed that the energy carried by “light” is indeed, equivalent to a gravitational mass.

 

There is also the observational fact that the frequency (clip_image183) and the energy of photons increases when they fall in the gravitational field (clip_image173) of the earth. The energy, and therefore the gravitational mass (clip_image185), of photons are proportional to their frequency (clip_image183) as given by the Einstein/Planck electromagnetic energy (clip_image187) relation.

                                                                                                                                                                                                                                               1.22 

clip_image189

Where,

clip_image191

 

 

Net Inertial Mass – Localized Gravitational Field Source

                                                                                                                                                                                                                                               1.23 

clip_image193

The Net Inertial Linear Mass Density (clip_image195), of a localized gravitational field source, is a measure of the “inhomogeneous gravitational field” linear mass density of the gradient gravitational field; and is defined as the Net Inertial Mass (clip_image197), divided by the Semi-Major Radius (clip_image199) distance relative to the center of the inhomogeneous gradient gravitational field, vortex system body.

 

 The Net Inertial Linear Mass Density (clip_image195), is a measure of rarefaction or condensing in the linear mass density of the “inhomogeneous” gradient gravitational field, which is comprised of an infinite series of “spherical shell potentials” relative to the center of the gradient gravitational field, vortex system; and exterior to the Black Hole Event Horizon.

 

The Net Inertial Linear Mass Density (clip_image195), is a direct measure of the localized “linear mass density” of the gradient gravitational field, space-time continuum in a vacuum of space-time, relative to a Black Hole, Event Horizon, and the center of the gradient gravitational field system mass body.

 

In this “Gradient Vortex Gravitational Field” model, the Net Inertial Linear Mass Density (clip_image223) is a “maximum” linear density at the Black Hole Event Horizon” origin source, of the gravitational gradient field; and where (clip_image204).

 

Furthermore, the Net Inertial Linear Mass Density (clip_image206) is “condensed” in close proximity to the Black Hole Event Horizon” gravity source; and is “rarefied” far away from the gravity source.

 

The Net Inertial Linear Mass Density (clip_image208) is a “minimum” linear density, of the gradient gravitational field, when the Semi-Major Radius (clip_image199), is greater than the Black Hole Event Horizon Schwarzschild Radius (clip_image211), of the gradient gravitational field.

The most minimum spatial “Volume” (clip_image213) and space distance, of the “Gravitational Vortex” “homogenous” gradient gravitational field is the Black Hole Event Horizon –Schwarzschild Radius (clip_image215).

 

At this most minimum volume and distance of the “Gravitational Vortex” gradient gravitational field, the Black Hole Event Horizon – Inertial Linear Mass Density (clip_image217) is maximum, and is a universal constant.

 

clip_image219

 

The “Black Hole”Net Inertial Linear Mass Density (clip_image221), is a universal constant for every mass body, in the universe.

 

The Inertial Linear Mass Density (clip_image223) is maximum and constant for every mass body in the universe, when the Semi-Major Radius distance, relative to the center of the vortex gradient gravity field, is equal to the Schwarzschild radius (clip_image204) of the gradient gravitational field.

clip_image225 

  

 Located at the Black Hole Event Horizon and source of the gravitational field, the space-time continuum in a vacuum, is where the matter, mass, and energy, denoted by the Net Inertial Mass (clip_image227), is intertwined, and varies in direct proportion to the smallest “space or distance” which is condensed at the center of the gradient gravitational field, and is denoted by the Schwarzschild Radius (clip_image229); there matter warps, and curves the space and time, in the local vicinity of the mass.

The “Black Hole”Net Inertial Linear Mass Density (clip_image221) universal constant, is a measure of the “maximum” linear mass density and “source” of the “Black Hole – homogeneous” gradient gravitational field, and is a direct measure space-time continuum in a vacuum at that location.

 

A space-time continuum is where matter, space, and time become inherently intertwined or inseparable.

 

In this “Gradient Vortex Gravitational Field” model, the “Black Hole”Net Inertial Linear Mass Density (clip_image221) is a constant value, that is spatially located at the Black Hole Event Horizon” origin source, of the gravitational gradient field;

 

The “Black Hole”Net Inertial Linear Mass Density (clip_image233), is a constant of nature, defined as the ratio of the, Net Inertial Mass (clip_image197) divided by the Schwarzschild Radius (clip_image215), of the Black Hole Event Horizon, of the gradient gravitational vortex field.

 

Net Inertial Linear Mass Density – Black Hole Event Horizon

                                                                                                                                                                                                                                               1.24 

clip_image237

 

 

The “Black Hole”Net Inertial Linear Mass Density (clip_image233) universal constant, is the “vacuum energy” binding proportionality between “Matter/Mass” and the “Space” of the “Vacuum of Space-time”; and can be modeled as a “fabric continuum” or “vacuum energy” that permeates throughout the entire universe.

 

Now, that the constituent “linear mass densities”, the Net Inertial Linear Mass Density (clip_image195), and the “Black Hole”Net Inertial Linear Mass Density (clip_image233) have been described and discussed, the composite “linear mass density” (clip_image240) can be expressed as a differential.

 

 

1.4.       Vacuum Energy “Perfect” Fluid Mechanical Model – Rationale for using Kepler’s Third Law of Motion (Evolutionary Attraction Rate) – For Describing Non-Euclidean Metrics

 

 

In this “Inertial Mass Gravity Vortex” model we combine the concept of Newtonian gravitational attraction, where mass is attracted to mass, with the Isotropic Aether gravitational attraction, where aether is attracted to mass with the concept of Kepler’s Third Law, which describes the gradient gravitational field vortex, as an infinite series of spherical gradient gravitational potentials, which extend outward relative to the center of the vortex.

 

The Kepler’s Third LawInertial Mass Evolutionary Attraction Rate – Magnitude (clip_image242), is a measure of the evolutionary attraction of “mass towards mass”, and towards the center of the gravitational vortex system; and is a local constant whose value is directly proportional the Net Inertial (clip_image197) Mass, of an isolated gradient gravitational field system.

 

clip_image245

 

Kepler’s Third Law – Inertial Mass Evolutionary Attraction Rate – Magnitude (clip_image247)

                                                                                                                                                                                                                                               1.25 

clip_image249

 

 

The Kepler’s Third LawIsotropic Aether Evolutionary Attraction Rate – Magnitude (clip_image251), is a measure of the evolutionary attraction of “aether towards mass”, and towards the center of the gravitational vortex system; and is a variable whose value is directly proportional the Semi-Major Radius (clip_image199) and distance, as measured relative to the center of an isolated gradient gravitational field system.

 

clip_image254

 

Kepler’s Third Law – Isotropic Aether Evolutionary Attraction Rate – Magnitude (clip_image256)

                                                                                                                                                                                                                                               1.26 

clip_image544

The concept of Kepler’s Third Law also describes a composite “Rarefaction” Evolutionary Attraction Rate (clip_image260), and is a differential and measure of change “inhomogeneous gravitational field” Evolutionary Attraction Rate of the gradient gravitational field, relative to the center of the gravitational field gradient, or the Black Hole Event Horizon, of a localized gradient gravitational field.

 

The Kepler’s Third Law“Rarefaction” Evolutionary (clip_image262) Attraction Rate, is a measure of the evolutionary attraction of “Dark Matter” phenomena; and is a variable whose value is directly proportional the difference between Isotropic Aether Evolutionary Attraction Rate – Magnitude               (clip_image251), and subtracted from twice (2) the Inertial Mass Evolutionary Attraction Rate – Magnitude (clip_image264).

 

 

Kepler’s Third Law – “Rarefaction” Evolutionary Attraction Rate

(clip_image262)

                                                                                                                                                                                                                                               1.27 

clip_image267

  

clip_image269 clip_image271

 

 

Kepler’s Third Law – “Rarefaction” Evolutionary Attraction Rate

(clip_image262)

                                                                                                                                                                                                                                               1.28 

clip_image273

clip_image275clip_image271

 

clip_image277

 

 

Kepler’s Third Law – “Rarefaction” Evolutionary Attraction Rate

(clip_image262)

                                                                                                                                                                                                                   1.29 

clip_image279clip_image271

 

  

clip_image281

 

 

Kepler’s Third Law – “Rarefaction” Evolutionary Attraction Rate

(clip_image262)

                                                                                                                                                                                                                                               1.30 

clip_image283clip_image271

   

clip_image285

clip_image287

 

image

1.5.       Vacuum Energy “Perfect” Fluid Mechanical Model – Gravitational Potential Energy Differential Equations – For Describing Non-Euclidean Metrics

 

 

The composite “linear mass density” is known as the “Rarefaction” Net Inertial Linear Mass Density (clip_image291), and is a measure of the change “inhomogeneous gravitational field” linear mass density of the gradient gravitational field, relative to the center of the gravitational field gradient, or the Black Hole Event Horizon, of that gravity field.

 

The Change in the Gravitational Potential Energy (clip_image293), is directly proportional to changes in the “Rarefaction” Net Inertial Linear Mass Density (clip_image295), and is a measure of the Keplerian gradient gravitational field (clip_image277), which is comprised of an infinite series of “spherical shell “energy” potentials” relative to the center of the gradient gravitational field, vortex system.

 

Differential – Gravitational Potential Energy (clip_image293) – function of Differential – “Radial Distance” (clip_image300) Space – Gradient Gravitational Field

                                                                                                                                                                                                                                               1.31 

clip_image302       ®  clip_image304

 

The “Rarefaction” Net Inertial Linear Mass Density (clip_image295), is a differential and is a measure of the Keplerian gradient gravitational field, which is comprised of an infinite series of “spherical shell “linear mass density” potentials” relative to the center of the gradient gravitational field, vortex system; and is a direct measure space-time continuum in a vacuum.

 

“New” – Differential – Condensing/Rarefaction Linear Mass Density              (clip_image295) – function of Differential – “Radial Distance” (clip_image300) Space – Gradient Gravitational Field

                                                                                                                                                                                                                                               1.32 

clip_image306      ®  clip_image308

 

clip_image310

Next, using the calculus or integration for the differential “Rarefaction” Net Inertial Linear Mass Density (clip_image312)

                                                                                                                                                                                                                                               1.33 

clip_image314     ® clip_image316

 

 

clip_image318

                                                                                                                                                                                                                                               1.34 

clip_image320

 

 

“Rarefaction” Net Inertial Linear Mass Density (clip_image322) relative to the Black Hole Event Horizon Linear Mass Density (clip_image324)

                                                                                                                                                                                                                                               1.35 

clip_image326     ® clip_image316

clip_image328 

clip_image330 

                                                                                                                                                                                                                                               1.36 

clip_image332      ® clip_image316

image

 

 

The “Rarefaction” Net Inertial Linear Mass Density (clip_image295), is a differential measure of the Keplerian gradient gravitational field, and is directly proportional to the following differentials.

 

·         Differential Potential Energy – (clip_image336)

·         Differential Vacuum Force – (clip_image338)

·         Differential “Space” Distance – (clip_image300)

 

“New” – Differential – Condensing/Rarefaction Linear Mass Density              (clip_image295) – function of Differential – Vacuum Energy Force (clip_image341) – Gradient Gravitational Field

                                                                                                                                                                                                                                               1.37 

clip_image343      ®  clip_image308

clip_image345

 

 

“New” – Differential – Gravitational “Self” Potential Energy (clip_image347) – function of Linear Mass Density (clip_image295), Vacuum Energy Force              (clip_image341), and “Radial Distance” (clip_image300) Space – Gradient Gravitational Field

                                                                                                                                                                                                                                               1.38 

clip_image349       ®  clip_image304

 

 

clip_image351

 

“Classical”

clip_image353     ®  clip_image304

  

“New” – Differential – Gradient Gravitational Field

Gravitational “Self” Potential Energy (clip_image355)

clip_image357      ®  clip_image359

 

clip_image361     ®  clip_image363

 

clip_image365      ®  clip_image367

 

 

1.6.       Unified Gravitational Vortex Theory – Constituent Gravitational Forces – Inertial Mass Gravitational Attraction Force & Aether Gravitational Attraction Force

 

 

In this section it will be discussed the constituent Gravitational Forces – Inertial Mass “Self” Gravitational Attraction Force (clip_image369) and the Aether Gravitational Attraction Force (clip_image371).

 

In the Super Principia Unified Gravitation Theory, the Newtonian “Self” Force of Gravitation (clip_image369) is responsible for the “attraction of mass towards mass” and towards a center of a gravity source system.

Newtonian “Self” Gravitational “Mass to Mass” Attraction Force

(Magnitude Only)

                                                                                                                                                                                                                                               1.39 

clip_image081     ®  clip_image065

 

clip_image375

 

 

 

Newtonian “Self” Gravitational Force – Differential – Gravitational Potential Energy (clip_image377) – with Differential “Radial Distance” (clip_image300) Space – Gradient Gravitational Field – (Magnitude Only)

                                                                                                                                                                                                                                               1.40 

clip_image379      ®  clip_image065

clip_image381

clip_image383

The Aether “Light” Force of Gravitation (clip_image371) is responsible for the “attraction of the gaseous aether towards mass” and towards a center of a gravity source system.

 

The aether gas, is also described by the isotropy of space-time, given by the square of the “Speed of Light” (clip_image386), of the vacuum of space-time.

 

Aether “Light” Gravitational “Aether to Mass” Attraction Force (Magnitude)

                                                                                                                                                                                                                                               1.41 

clip_image388       ®  clip_image065 

 

clip_image390

 

 Aether “Light” Gravitational Force – Differential – (clip_image392) Gravitational Potential Energy – Isotropic Space – Gradient Gravitational Field – (Magnitude Only)

                                                                                                                                                                                                                                               1.42 

clip_image394      ®  clip_image065

 clip_image396 

clip_image398

The constituent Gravitational Forces – Inertial Mass “Self” Gravitational Attraction Force (clip_image369) and the Aether Gravitational Attraction Forces (clip_image371), are also described as fluid dynamical forces shown below.

 

In the Super Principia Unified Gravitation Theory, the Newtonian “Self” Force of Gravitation (clip_image369) is described as a fluid responsible for the “attraction of mass towards mass” and towards a center of a gravity source system.

Newtonian “Self” Gravitational “Mass to Mass” Attraction Force

(Magnitude Only)

                                                                                                                                                                                                                                               1.43 

clip_image400     ®  clip_image065

 

clip_image402

The Aether “Light” Force of Gravitation (clip_image371) is described as a fluid responsible for the “attraction of the gaseous aether towards mass” and towards a center of a gravity source system.

 

Aether “Light” Gravitational “Aether to Mass” Attraction Force (Magnitude)

                                                                                                                                                                                                                                               1.44 

clip_image404       ®  clip_image065

 

clip_image406

 

1.7.       Unified Gravitational Vortex Theory – Composite Gravitational Force – Rarefaction/Condensing Force of Gravitation

 

 

In this section it will be discussed the composite Gravitational Force – Rarefaction Force of Gravitation (clip_image018).

 

In the Super Principia Unified Gravitation Theory, the Rarefaction Force of Gravitation (clip_image018) is a “Dark Matter “Isotropic Pressure” Force” equal to the difference between the Aether “Light” Force of Gravitation (clip_image371), and twice (2) the Newtonian “Self” Force of Gravitation (clip_image408); and is related to the “Time” (clip_image410) component or term, described in the Schwarzschild Metric (clip_image004).

 

“New” – Rarefaction/Condensing Gravitational “Dark Matter” Force (Magnitude Only)

                                                                                                                                                                                                                                               1.45 

clip_image412      ®  clip_image065

 

 clip_image414

 clip_image416

 

 

The Rarefaction Force of Gravitation (clip_image018) is a rarefying force, normalizing the gravitational densities and pressures, experienced by a test mass body, in the gradient gravitational field of a Net Inertial (clip_image142) Mass/Matter source, as it is moved “outward” through the gradient gravitation field, and is far away from the Black Hole Event Horizon, reaching into infinite distances of space.

 

And likewise the Rarefaction Force of Gravitation (clip_image018) is a condensing force, decreasing the gravitational densities and pressures, experienced by a test mass body, in the gradient gravitational field of a Net Inertial Mass (clip_image142) source, as it is moved “inward” through the gradient gravitation field, from infinite distance, and towards the surface of the Black Hole Event Horizon, and center of the gravity field.

The Rarefaction Force of Gravitation (clip_image018), is further derived below and defined as the product of the Inertial Linear Mass (clip_image418) Density, multiplied by the difference in the square of the Speed of Light (clip_image420), subtracted from two times the square of Inertial Mass Gravitational Tangential Velocity (clip_image422).

“New” – Rarefaction/Condensing Gravitational “Dark Matter” Force

                                                                                                                                                                                                                                               1.46 

clip_image424      ®  clip_image065

 clip_image426

 

clip_image428

 

The Rarefaction Force of Gravitation (clip_image018), predicts that due to the presence of matter, and the curvature of space, space-time, and the gravitational field, the Inertial Linear Mass Density (clip_image418) varies according to the proportionality below.

 

clip_image430

 

The Rarefaction Pressure Force of Gravitation (clip_image014), of a Spherically Symmetric gradient gravitational field vortex system body, describes a static “Refraction/Condensing (clip_image097) Pressure”, which changes in direct proportion to one third, the reduced and rarefying Inertial Volume Mass Density (clip_image132), of the gradient gravitational vortex system body.

                                                                                                                                                                                                                                               1.47 

clip_image434  ®  clip_image028

The Rarefaction Pressure Force of Gravitation (clip_image014), predicts that due to the presence of matter, and the curvature of space, space-time, and the gravitational field, the Inertial Volume Mass Density varies according to the proportionality below: (clip_image436).

 

clip_image438

 

 

The Rarefaction Force of Gravitation (clip_image018) is a fluid mechanical, rarefying/condensing “Dark Matter Isotropic Pressure Force, in an inhomogeneous gradient gravitational field, which reduces the pressure, forces, and densities, on individual spherical gradient gravitational energy potential surfaces; nearer to the surface of the Black Hole event horizon; and the rarefying densities and pressures, of the infinite series of surfaces, return to normal, located an infinite distance away from the black hole source of gravity.

                                                                                                                                                                                                                                               1.48 

clip_image440

 clip_image442 

clip_image444   ®  clip_image065 

 

clip_image446

 

 

clip_image448

“New” Rarefaction Force of Gravitation (clip_image018) expressed as fluid mechanical “Dark Matter Bulk Density” “Compression” differential

                                                                                                                                                                                                                                               1.49 

clip_image450      ®  clip_image065

 

clip_image452   ®  clip_image065

 

clip_image454    ®  clip_image065

 

 

The above Rarefaction Force of Gravitation (clip_image018) fluid mechanical, rarefying/condensing “Dark Matter Isotropic Pressure Force, equations are very interesting; and tell us a lot about how the curvature and the gradient gravitational field is created or formed.

 

The following limits of integration apply to theRarefaction Force of Gravitation (clip_image018) (Magnitude Only)

clip_image457

The Spherically Symmetric Space, Space-time, or Gravitational Field of the various gravitational forces, behaves like a “Perfect Fluid” around the Black Hole Event Horizon, of any Net Inertial Mass (clip_image142) and Gradient Gravitational Field are described by the Spherically Symmetric Metric equation below.

 

New Mathematical Formalism – Generalized Spherically Symmetric Metric

                                                                                                                                                                                                                                               1.50  

clip_image460   ® clip_image462

 

The graphs of the Rarefaction Force of Gravitation (clip_image018) “Perfect Fluid” mechanical, rarefying/condensing “Dark Matter Isotropic Pressure Force, are show below.

 

The graphs below, demonstrate that there is a lot of gravitational interaction, around the Black Hole Event Horizon of any Net Inertial Mass (clip_image142) and Gradient Gravitational Field.

 

Within the surface of the Black Hole Event Horizon, and when the Semi-Major Distance is given by (clip_image464), the magnitude of the Newtonian “Self” Force of Gravitation (clip_image466) is larger than the magnitude of the Aether “Light” Force of Gravitation (clip_image468).

 

The Rarefaction “Dark Matter” Force of Gravitation (clip_image018) is dominated by mass gravitation towards mass attraction in this case.

 

Within the surface of the Black Hole Event Horizon, and when the Semi-Major Distance is given by (clip_image470), the magnitude of the Newtonian “Self” Force of Gravitation (clip_image466) is smaller than the magnitude of the Aether “Light” Force of Gravitation (clip_image468).

 

The Rarefaction “Dark Matter” Force of Gravitation (clip_image018) is dominated by aether gravitation towards mass attraction in this case.

Within the surface of the Black Hole Event Horizon, and when the Semi-Major Distance is given by (clip_image473), the magnitude of the Newtonian “Self” Force of Gravitation (clip_image466) is equal to the magnitude of the Aether “Light” Force of Gravitation (clip_image468).

 

The Rarefaction “Dark Matter” Force of Gravitation (clip_image018) is in equilibrium with aether gravitation towards mass attraction and mass gravitation towards mass attraction in this case.

 

Rarefaction “Dark Matter” Force of Gravitation (clip_image018) is always becoming more, and more, like the Aether “Light” Force of Gravitation (clip_image468), as the Semi-Major Distance (clip_image476) is increased with great distance, far away from the Black Hole Event Horizon, and as the distance approaches infinity.

 

This means that the “isotropic aether” is attracted to “mass/matter” from long ranges, even as the inertial mass gravitation, mechanism, where “mass/matter” is attracted to “mass/matter” from long ranges is diminished.

 

image

The graph below give a closer zoomed in view of the area surrounding the Black Hole Event Horizon.

 

image

2.   Conclusion

 

This work was written to physicists that are interested in understanding from a conceptual view, the rationale for selecting “Flat Geometry” Euclidean Space, or selecting a “Curved Geometry” Non-Euclidean Space; and whether to choose the Einstein Metric or the Schwarzschild Metric, as description for causality of gravity, or general motion in a gravitational field.

 

The Schwarzschild and the Einstein “Non-Euclidean” Metrics (clip_image004) describes the causality and geometry of the curvature of space, space-time, and the gravitational field, and is used in conjunction, with a fluid mechanical model, Perfect Fluid “Static or Dynamic” Vacuum Energy Solution for the causality gravitation.

 

The proposed model in this work is the Unified Gravitation Vortex Theory. This Unified Gravitation Vortex Theory describes a closed solution for cosmological and quantum mechanical effects, of matter in motion throughout the universe.

 

A fluid mechanical, perfect fluid vacuum energy solution to gravitation, makes that claims that the “Single Newtonian Gravity Force – Only” solution to gravitation is abandoned; in favor of a gravitation theory, that describes multiple or various “forces”, “densities” “pressures” and “energies” into a more unified theory of gravitation.

 

This paper gave a conceptual and mathematical description for the reason for choosing to “Vacuum Energy Perfect Fluid” model, and using the Schwarzschild Metric over the Einstein Metric, based on the concept of whether there is “Zero Pressure” impressed upon the surface of the Black Hole Event Horizon.

 

And likewise, whether the “Volume Mass Density” and the curvature of space, space-time, or the gravitational field, surrounding a matter source is normal throughout the gradient of a gravitational field, or whether it is rarefied or condensed through the gradient of a gravitational field, and eventually becomes normal far away from the matter source.

 Below are the topics that were discussed in this paper:

·         1.1       Vacuum Energy “Perfect” Fluid Mechanical Model – Rarefaction/Condensing Pressure and Density Conditions – For Describing Non-Euclidean Metrics

 

 

·         1.2       The Vacuum Energy “Perfect” Fluid Mechanical Model – Rarefaction/Condensing Pressure and Density Conditions – For Describing Non-Euclidean Metrics

 

 

·         1.3       Vacuum Energy “Perfect” Fluid Mechanical Model – Rationale for using the Rarefaction/Condensing Linear Mass Density and Gravitational Potential Energy Differential Equations – For Describing Non-Euclidean Metrics

 

 

·         1.4       Vacuum Energy “Perfect” Fluid Mechanical Model – Rationale for using Kepler’s Third Law of Motion (Evolutionary Attraction Rate) – For Describing Non-Euclidean Metrics

 

 

·         1.5       Vacuum Energy “Perfect” Fluid Mechanical Model – Gravitational Potential Energy Differential Equations – For Describing Non-Euclidean Metrics

 

 

·         1.6       Unified Gravitational Vortex Theory – Constituent Gravitational Forces – Inertial Mass Gravitational Attraction Force & Aether Gravitational Attraction Force

 

 

·         1.7       Unified Gravitational Vortex Theory – Composite Gravitational Force – Rarefaction/Condensing Force of Gravitation

 

 

 

References

 

 

[1]        Physical Acceptability of Isolated, Static, Spherically Symmetric, Perfect Fluid Solutions of Einstein’s Equations, M.S.R. Delgaty and Kayll Lake1, Department of Physics, Queen’s University, Kingston Ontario, Canada K7L 3N6 (Dated: Septem 1998): http://arxiv.org/pdf/gr-qc/9809013v1.pdf

 

 

[2]        Generating perfect fluid spheres in general relativity, Petarpa Boonserm, Matt Visser, and Silke Weinfurtner, School of Mathematics, Statistics, and Computer Science, Victoria University of Wellington,PO Box 600, Wellington, New Zealand (Dated: March 2005 – February 6, 2008): http://arxiv.org/pdf/gr-qc/0503007v1.pdf(Pages: 13 – 16)

 

[3]        Karl Friedrich Gauss, General Investigations of Curved Surfaces of 1827 and 1825, The Project Gutenberg EBook of General Investigations of Curved Surfaces of 1827 and 1825, by Karl Friedrich Gauss: http://www.gutenberg.org/files/36856/36856-pdf.pdf

[4]        Gauss Law – Theorema Egregium:

            http://en.wikipedia.org/wiki/Theorema_Egregium

[5]        List of Differential Geometry Topics (Wikipedia): http://en.wikipedia.org/wiki/List_of_differential_geometry_topics

 

 

[6]        D.F. Lawden. Introduction to Tensor Calculus, Relativity and Cosmology; Dover Publications; 3 edition (January 27, 2003), ISBN 978-0486425405 pp. 6-10

[7]       Minkowski, Hermann (1907/8), “Die Grundgleichungen für die elektromagnetischen Vorgänge in bewegten Körpern“, Nachrichten von der Gesellschaft der Wissenschaften zu Göttingen, Mathematisch-Physikalische Klasse: 53–111 *** Wikisource translation: The Fundamental Equations for Electromagnetic Processes in Moving Bodies.

 

[8]        Einstein’s Paper: “Explanation of the Perihelion Motion of Mercury from General Relativity Theory”; Anatoli Andrei Vankov; IPPE, Obninsk, Russia; Bethany College, KS, USA:

http://www.gsjournal.net/old/eeuro/vankov.pdf

 

[9]      Schwarzschild, K. (1916). “Über das Gravitationsfeld eines Massenpunktes nach der Einstein’schen Theorie”. Sitzungsberichte der Königlich Preussischen Akademie der Wissenschaften 1: 189–196: text of the original paper, in Wikisource: http://de.wikisource.org/wiki/%C3%9Cber_das_Gravitationsfeld_eines_Massenpunktes_nach_der_Einsteinschen_Theorie

 

[10]      Schwarzschild Geodesics:

            http://en.wikipedia.org/wiki/Schwarzschild_geodesics

  

[11]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics – The General Theory of Relativity.” ISBN 978-0-9841518-2-0, Flying Car Publishing Company, July 2010, pp. 20-21.

 

 

[12]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2011/12/23/inertial-mass-vortex-gravitation-theory-continued-part-3/

 

 

[13]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/01/28/total-mechanical-energy-conservation-escape-velocity-binding-energy-einstein-field-equation/

 

 

[14]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/01/16/a-theory-of-gravity-for-the-21st-century-the-gravitational-force-and-potential-energy-in-consideration-with-special-relativity-general-relativity/

 

 

[15]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/05/29/newtonian-self-gravitational-force-video-lecture/

 

 

[16]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/11/08/conditions-for-the-absence-and-presence-of-matter-in-general-relativity-gr-einstein-field-equations-efes/

 

 

[17]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2013/01/20/what-are-the-mathematical-and-physical-concepts-of-flat-euclidean-and-curved-non-euclidean-gravitational-fields/

 

 

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What are the Mathematical and Physical Concepts of “Flat” Euclidean and “Curved” Non-Euclidean Gravitational Fields?

What are the Mathematical and Physical Concepts of “Flat” Euclidean and “Curved” Non-Euclidean Gravitational Fields?

 

 

By

Robert Louis Kemp

 

Super Principia Mathematica

The Rage to Master Conceptual & Mathematical Physics

 

www.SuperPrincipia.com 

www.Blog.Superprincipia.com 

Flying Car Publishing Company

P.O Box 91861

Long Beach, CA 90809

January 7, 2013

 

 

Abstract

 

In this paper a general introduction to basic concepts for the geometric description of Euclidean “Flat-Space” Geometry and Non-Euclidean “Curved-Space” Geometry, and Spherically Symmetric Metric equations which are used for describing the causality and motion of the “Gravitational” interaction between mass with vacuum energy space, and the mass interaction with mass.

 

This paper gives a conceptual and mathematical description of the differential geometry, of flat and curved space, space-time, or gravitational fields, using the “metric theory” mathematics of Euclidean, Minkowski, Einstein, and Schwarzschild, Spherically Symmetric metrics, and geodesic line elements.

 

This paper postulates a “Vacuum Energy Perfect Fluid” model and a “Dark Matter Force and Pressure” associated with the Non-Euclidean Spherically Symmetric metric equations, and also gives a conceptual and mathematical description and rationale, for selecting the Schwarzschild Metric over the Einstein Metric, as a physical description of the gradient gravitational, field surrounding a localized net inertial mass/matter source.

 

This paper also gives a new generalized mathematical formalism for describing “Non-Euclidean” Spherically Symmetric Metrics, of space, space-time, or the gravitational field, using a generalized “Metric “Curvature” Coefficient”.

 

 PDFWhat are the Mathematical and Physical Concepts of Flat Euclidean and Curved Non-Euclidean Gravitational Fields 

 

Keywords: General Relativity, Special Relativity, Einstein Field Equation, Gravitational Field, Coordinate Singularity, Physical Singularity, Gravitation, Dark Energy Gravitation, Black Hole Event Horizon, Spherically Symmetric Metric, Euclidean Geometry, Non-Euclidean Geometry, Minkowski Metric, Einstein Metric, Schwarzschild Metric

 

 

Contents

·         1.0       Introduction

  

·         1.1       Introduction to Basic Concepts of Euclidean and Non-Euclidean Geometry and Spherically Symmetric Metrics

  

·         1.2       General Spherically Symmetric Metric – Euclidean and Minkowski (Pseudo-Euclidean) Metrics

  

·         1.3       General Spherically Symmetric Metric – Schwarzschild Metric – Non-Euclidean Metric

 

·         1.4       General Spherically Symmetric Metric – Schwarzschild Metric – Non-Euclidean Metric – Dynamic Fluid Pressure Gradient Solution

  

·         1.5       General Spherically Symmetric Metric – Einstein Metric – Non-Euclidean Metric – Static Fluid Pressure Gradient Solution

  

·         1.6       New Mathematical Formalism – General Spherically Symmetric Metric – Einstein Metric – Non-Euclidean Metric

 

 

1.   Introduction

 

This work is written to physicists that are interested in understanding from a conceptual view, the rationale for selecting “Flat Geometry” Euclidean Space, or selecting a “Curved Geometry” Non-Euclidean Space; as causality for gravity, and motion of the “Gravitational” interaction between mass with vacuum energy space, and the mass interaction with mass.

 

In this paper, I do weave some of my own theory, ideas, and mathematics into these well established physics concepts and mathematics; therefore, this work is written for those that have a very good basis and understanding, of the concepts of differential geometry, and General Relativity; to be able to distinguish what is newly proposed, and what is being discussed in general throughout this paper.

 

Likewise this work is written to physicists that are interested in understanding why a Schwarzschild Spherically Symmetric Metric (clip_image002), is preferred over the Einstein Spherically Symmetric Metric (clip_image002); which is based on a particular choice of “pressure” and “density” in the universe, and on the surface of the Black Hole Event Horizon, source of a localized gradient gravitational field.

 

A “Spherically Symmetric Metric” (clip_image002) is used for describing the “flat” or “curved” Differential Geometry of Space, Time, & Surfaces, of spherically symmetric space, space-time, or gravitational field, in the presence or absence of condensed matter.

 

In this work I have limited the discussion only to the: Euclidean, Minkowski, Einstein, and Schwarzschild Spherically Symmetric Metrics of space, space-time, or the gravitational field, however there are many other geometric “metric” equations, and theories of gravitation, that are accepted by the mainstream physics. And there are many “Spherically Symmetric Metrics” that are in use in physics today.

 

In a paper written by M.S.R. Delgaty and Kayll Lake (1998) “Physical Acceptability of Isolated, Static, Spherically Symmetric, Perfect Fluid Solutions of Einstein’s Equations[1], they describe various “Spherically Symmetric Metrics” (clip_image002) equations. 

M.S.R. Delgaty and Kayll Lake ”[1], state,

 

“It is fair to say then that most of the spherically symmetric perfect fluid “exact solutions” of Einstein’s field equations that are in the literature are of no physical interest.”

 

And likewise in a paper by, Petarpa Boonserm, Matt Visser, and Silke Weinfurtner (2005) “Generating perfect fluid spheres in general relativity[2], they describe that there are over 127 solutions to the “Spherically Symmetric Metrics”.

 

But only nine (9) of those “metric” equations satisfy the criteria for predicting actual physical measurable results.

 

The various “Spherically Symmetric Metric” (clip_image002), equations which are either Euclidean or Non-Euclidean, describes physical and observable results of gravitational interaction between mass and space, and between mass and mass, predicts that the vacuum energy, and inertial matter in motion interact, through a space, space-time, or gravitational field, that is either flat or curved, and surrounding a localized gravity source, that is either matter dependent, or matter independent, is described in the following sections of this paper.

 

My goal is to bring into correlation, the concepts of “Gravitational Force” of the Newtonian style, and the concepts of Non-Euclidean geometric “curvature of space-time” as described by the mathematical differential geometry of the “Spherically Symmetric Metric” (clip_image002) of space, space-time, or a gravitational field, and due to the presence or absence of mass or matter as the source of a gradient gravitational field, in a localized region of the universe.

 

Also I will introduce a new generalized mathematical formalism for describing the “Spherically Symmetric Metric” (clip_image002), by expression of a term known as the “Metric “Curvature” Coefficient” (clip_image004). The “Metric “Curvature” Coefficient” (clip_image004) is term and quantity, used for describing the “amount of curvature” due to motion through a perfect fluid vacuum energy, and the presence or absence of mass or matter as the source of a gradient gravitational field, in a localized region of the universe.

 

The Non-Euclidean “Spherically Symmetric Metric” (clip_image002) which describes the actual physical geometry of space, space-time or a gravitational field, is used to describe space where there is condensed matter, mass, and energy; as will be described in following section of this paper.

 

Furthermore, the “Spherically Symmetric Metric” (clip_image002) can describe the space, space-time or a gravitational field, of or surrounding the: universe, stars, planets, galaxies, quasars, electrons, protons, neutrons, atoms, molecules, photons, etc…

 

 

 

1.1.       Introduction to Basic Concepts of Euclidean and Non-Euclidean Geometry and Spherically Symmetric Metrics

 

 

The goal of this section is to describe an algorithm for describing a general “Spherically Symmetric Metric”, which can predict Euclidean and Non-Euclidean Metrics, in a “flat” or “curved” space, space-time, or gravitational field.

 

For any surface, embedded in a Euclidean space of three (3) dimensions or higher, it is possible to measure: the length of a curve (clip_image006) on the surface, the angle (clip_image008) between any two curves on the surface, and the area (clip_image002) of a region on the surface. This concept is extended into greater than three dimensions with Bernhard Riemann Geometry (1826 – 1866).

 

This surface embedded (mapping one surface to another surface) structure to any space, space-time, or gravitational field, is encoded infinitesimally in a generalized spherically symmetric metric, on the surface, through geodesic line elements (clip_image006) and area elements (clip_image010).

 

Carl Friedrich Gauss (1777 – 1855) in his “Theorema Egregium” [3], which is Latin for “remarkable theorem”, states that Gaussian curvature of a surface can be determined from the measurements of length (clip_image006) on the surface itself.

 

This “extraordinary” result shows that the Gaussian curvature of a surface can be computed solely in terms of a “Metric” (clip_image010), and is thus an intrinsic invariant of the surface. The Gaussian curvature is invariant under isometric deformations of the surface.

 

clip_image012

 

Gaussian curvature can be used to describe the position, location, or a change in position or location, of any object on a surface in space.

 

The “remarkable” result predicted by Gauss, is that the curvature does not depend on its surface embedding, and in spite of all bending and twisting deformations, undergone during rotations; a surface can be determined from the measurements of length (clip_image006) on the surface itself, which is described by a Metric (clip_image002).

 

The Gaussian curvature of a surface is independent of any embedding (mapping one surface to another surface) and is unchanged under coordinate transformations. In general the isometrics of all surfaces preserve Gaussian curvature, during bending, twisting, deformations, and rotations; which is described by a Metric (clip_image002).

 

In Riemannian geometry, Gauss’s lemma predicts that any small sphere centered at a point in any surface or Riemannian manifold, is perpendicular to every geodesic through the point.  The geodesic is describes by a Metric (clip_image002) with line element (clip_image006) on the surface of a space, space-time, or gravitational field; that is either a “flat space” geometry or “curved space” geometry.

 

clip_image013

 

Getting a good understanding for what a metric describes is crucial for describing the space and time considerations of Special Relativity (SR) and General Relativity (GR). In (SR) and (GR) the concept of the “Metric” (clip_image002), is used to describe a line element (clip_image006) on the surface of a space, space-time, or gravitational field; that is either a “flat space” geometry or “curved space” geometry.

A “Euclidean” Metric (clip_image002), in Newtonian Gravitation (NG), describes a gravitational field as a “flat space”, and may be thought of as a concept where mass attracts mass, from across the vastness of empty “flat space”.

 

A “Non-Euclidean” Metric (clip_image002), in General Relativity (GR) may be thought of as a generalization of the gravitational field, in a “curved space or space-time”. The curvature is a form of “attraction” and is a result of the presence of the mass bodies in interaction; with a similar analogy to the Newtonian gravitation attraction concept.

 

The Metric (clip_image002) captures all the geometric and causal structure of space, space-time or a gravitational field, which are used to define notions such as distance, volume, curvature, angle, future and past.

 

For any Gaussian Surface or Riemannian Manifold, the sum of the angles of any triangle, described on a surface is given by any Metric (clip_image002):

 

·         is equal to 180° if the geometry is Euclidean;

·         is less than 180° if the geometry is Non-Euclidean hyperbolic;

·         is greater than 180° if the geometry is Non-Euclidean elliptic

 

clip_image014

 

This introduces a conceptual difference between the straight lines of the Euclidean geometry, and the curves of Non-Euclidean geometry, which physically bend in space. This “bending” property of space is not a property of the “Euclidean” or “Pseudo-Euclidean” lines elements and mathematics; but is only described by the “Non-Euclidean” lines elements and mathematics.

Thus Euclidean geometry describes straight lines in flat space geometry, and Non-Euclidean describes hyperbolic geometry and elliptic geometry in curved space geometry.

 

clip_image016

 

Another way of considering the differences between the Euclidean and Non-Euclidean geometries, are to consider two straight lines, infinitely extended in a two-dimensional plane that are both perpendicular to a third line:

 

·         In Euclidean “flat” geometry the lines in a space, space-time or gravitational field remain in a “flat space” at a constant distance from each other, even if extended into infinity, and are known as parallels.

 

The Euclidean “flat” geometry is independent of any condensed “mass” or “energy” in that “flat space”.

 

·        

In Non-Euclidean “open” hyperbolic geometry the lines in a space, space-time or gravitational field “curve away” from each other, increasing in distance as one moves further from the points of intersection with the common perpendicular.

 

The Non-Euclidean “open” hyperbolic geometry is “curvature” that is dependent of the condensed “mass” or “energy” in that “curved space”.

 

·         In Non-Euclidean “Closed” elliptical geometry the lines in a space, space-time or gravitational field ” curve toward” from each other, decreasing in distance as one moves towards the points of intersection.

 

The Non-Euclidean “Closed” elliptical geometry is “curvature” that is dependent of the condensed “mass” or “energy” in that “curved space”.

 

clip_image018

 

The “Spherically Symmetric Metric” (clip_image002) which describes the actual physical geometry of space, space-time or a gravitational field, can be used to describe space where there is condensed matter, mass, and energy.

The “Spherically Symmetric Metric” (clip_image002) can describe the space, space-time or a gravitational field, of or surrounding the: universe, stars, planets, galaxies, quasars, electrons, protons, neutrons, atoms, molecules, photons, etc…

clip_image020

 

1.2.       General Spherically Symmetric Metric – Euclidean and Minkowski (Pseudo-Euclidean) Metrics

 

 

In the differential geometry of theoretical physics, the Minkowski space is often contrasted with Euclidean space because they are both considered “flat space” geometry for space, space-time, or the gravitational field.

 

The Metric (clip_image002) which describes the geometry of space, space-time or a gravitational field, can be used to describe space where there is condensed matter, mass, and energy. And can describe the space, space-time or a gravitational field, of or surrounding the: universe, stars, planets, galaxies, quasars, electrons, protons, neutrons, atoms, molecules, photons, etc…

 

In the differential geometry of theoretical physics, the Euclidean space describes the “ordinary” triangle distance given by the Pythagorean calculation, on a flat space, and describes the physical space, between two points that one would measure with a ruler, and using the Pythagorean formula.

 

clip_image022

 

The Euclidean space has only space-like dimensions, and a Minkowski space has the space-like dimensions and one time-like dimension. On an orthonormal basis the Euclidean Space is a four-dimensional real vector space with signature (+, +, +), (x, y, z). 

 

The Euclidean Metric (clip_image024) is a Spherically Symmetric Metric that describes the differential geometry of “Flat” space/space-time; and is defined as the “net sum” of a square differential radial (clip_image026) component, and the “invariant” or “co-variant” square differential surface component (clip_image028), of a “Flat” space/space-time.

 

clip_image030

 

 

The Euclidean Metric (clip_image002) is independent of the mass or energy present in a localized space, space-time, or gravitational field.

 

Spherically Symmetric Metric – Euclidean Metric

                                                                                                                                                                                                                                                  1.1  

clip_image033      -> clip_image035

 

  

clip_image037

 

 The Euclidean Space in four-dimensional Cartesian vector space,

with signature (+, +, +), (x, y, z).

                                                                                                                                                                                                                                                  1.2 

clip_image033     -> clip_image035

 

clip_image040     -> clip_image035

 

 

The Minkowski Metric (clip_image002) is a Spherically Symmetric Metric that is considered “Pseudo-Euclidean”. The Minkowski Metric (clip_image024) describes the differential geometry of a “Flat” space-time; and is “net difference” between the square differential radial (clip_image042) “flat” space-time component, and the “light cone” “space-time square differential surface component (clip_image044), of a “Flat” space-time.

 

clip_image045

 

The Minkowski Metric (clip_image002) is independent of the mass or energy present in a localized space, space-time, or gravitational field.

 

Spherically Symmetric Metric – Minkowski “Pseudo-Euclidean” Metric

                                                                                                                                                                                                                                                  1.3 

clip_image047     -> clip_image035

  

clip_image049       -> clip_image035

 

clip_image051

    

 

clip_image053

 

 

On an orthonormal basis the Minkowski Space is also a four-dimensional Cartesian vector space with signature (−, +, +, +), (-t, x, y, z).

                                                                                                                                                                                                                                                  1.4 

clip_image051      -> clip_image035

 

clip_image056     -> clip_image035

 

 

The Euclidean space has three ordinary dimensions of space, that are combined with a single dimension of “time” that is “space-like”; to form a four-dimensional manifold for representing a flat space-time.

 

In Euclidean space, two vectors are said to be orthogonal in a flat space. But Minkowski space differs by including hyperbolic-orthogonal actions in that flat space.

 

Hermann Minkowski (1864 – 1909) in his work “The Fundamental Equations for Electromagnetic Processes in Moving Bodies[7], describes space-time has having three ordinary dimensions of space, that are combined with a single dimension of “time” that is “time-like”; to form a four-dimensional manifold for representing a space-time.

 

 The Minkowski space is then considered a pseudo-Euclidean space, where the orthonormal rotation is also a representation of a hyperbolic rotation.

 

The Euclidean and Minkowski space, points in space, correspond to events in space-time; and events not on the light-cone are classified by their relation to the apex, of the space, as space-like or time-like.

 

image

 

Both the Euclidean and Minkowski space describe physical systems, over finite distances of a “flat space” geometry for space, space-time, or the gravitational field. Likewise, both the Euclidean and Minkowski space are typically applied to the weak Newtonian gravitational fields, and in the absence of, or independent of a large mass, which is a source of the gravity field.

 

When the Euclidean or Minkowski space, is being applied to strong gravitational fields, this is still considered “flat space”. The Euclidean or Minkowski space, is a condition of space, space-time, or the gravitational field where mass and the vacuum of space do not interact.

 

In a region of weak gravity fields, the Minkowski or Euclidean space space-time in that region becomes “flat” not just locally to the source, but is flat extended out to great distances very far away from the weak gravity source.

 

For this reason Euclidean and Minkowski space is often referred to as “flat” space or “flat” space-time. The Euclidean and Minkowski space is “flat” in the presence of mass and weak gravity fields, and in that same region the space-time is described by a curved 4-dimensional manifold for which the tangent space to any point is a 4-dimensional Minkowski space.

 

The Pseudo-Euclidean Spherically Symmetric Metrics, predicts that there is a “Speed of Space or Space-time” (clip_image060), and a Speed of Light (clip_image062) constant.

 

Space-time – Square of the Speed of Light – Constant

                                                                                                                                                                                                                                              1.5 

clip_image064     -> clip_image066

 

 

Space-time – Square of the Speed of Space (Vacuum Energy Velocity)

                                                                                                                                                                                                                                                  1.6 

clip_image068     -> clip_image066

 

 

The Minkowski Metric (clip_image002) is independent of the mass or energy present in a localized space, space-time, or gravitational field.

 

Spherically Symmetric Metric – Minkowski “Pseudo-Euclidean” Metric

                                                                                                                                                                                                                                                  1.7  

clip_image047    -> clip_image035

 

clip_image071     -> clip_image035

 

 clip_image073

 

 

Although the Euclidean and Minkowski space describes “flat space” it is still a good description for describing the “curvature” of space, space-time, gravitational fields, and gravity forces. Thus the structure of Euclidean and Minkowski space is still valid in the general description of gravitational fields given by General Relativity (GR).

 

In Einstein’s [9] mathematical description of curvature of space-time of General Relativity Theory, the terms “metric” and “square of a line element” are used interchangeably.

 

Spherically Symmetric Metric – Einstein “Non-Euclidean” Metric

                                                                                                                                                                                                                                                  1.8 

clip_image075      -> clip_image035

 

The “Metric Coefficient” terms (clip_image077), can take on values of one (1) to four (4). The value of one (1) represents “space”, the value of (2) represents “latitude direction space”, the value of three (3) represents “longitude direction space”, and the value of four (4) represents “time”.

 

According to the above “metric” equation, the “line element” describes information about the causal structure of the space-time.

 

The “metric” or “squared line element” is “time-like” when the Minkowski/Einstein Metric (clip_image079).

 

clip_image081

 

The “metric” or “squared line element” is “light-like” when the Minkowski/Einstein Metric (clip_image083).

 

clip_image085

 

The “metric” or “squared line element” is “space-like” when the Minkowski/Einstein Metric (clip_image087).

 

clip_image089

 

In the case where there is a significant gravitational field present, and in the presence of a large mass, the space-time becomes curved or warped, in the local vicinity of the condensed matter, mass or energy.

 

Likewise, in the case where there is a significant gravitational field present, you have to abandon the “flat space” Euclidean and Minkowski, space of Special Relativity (SR), in favor of the “curved space” Einstein, Schwarzschild, and Riemannian, space of General Relativity (GR).

 

Thus in general there are the “flat space” metrics of Euclid and Minkowski, and the “curved space” “Non-Euclidean” metrics of Einstein and Schwarzschild.

 

The figure below describes a Euclidean Metric (clip_image002), and various Spherically Symmetric Minkowski Metrics (clip_image002); at various “speed of space (Vacuum Energy Velocity)” versus “speed of light” ratios (clip_image091).  

The larger the “speed of space” to the “speed of light” ratio (clip_image091), the more closely the Minkowski space-time follows exactly the Euclidean space-time!

 

Next, will be presented a graph that shows the Euclidean Metric, in contrast with the Minkowski/Einstein Metrics at different values of (clip_image091).

 

The Euclidean and the Minkowski “Metrics” (clip_image010) and geodesic “line elements” (clip_image006), are “mass independent” equations that describe the causality of “flat” space, space-time, or the gravitational field. 

Spherically Symmetric Metric – Euclidean Metric

                                                                                                                                                                                                                                                  1.9  

clip_image095     -> clip_image035

 

 

 Spherically Symmetric Metric – Minkowski “Pseudo-Euclidean” Metric

                                                                                                                                                                                                                                               1.10 

 clip_image097   -> clip_image035

 

 

clip_image098

 

The graph of the Euclidean and Minkowski Metrics (clip_image002), showing the radial integration limits, which extend from the center of the gradient gravitational field (clip_image100), and into infinite distances (clip_image102), is given in this classical form below.

 

clip_image104

 

In the graph below the Spherically Symmetric Minkowski Metrics (clip_image002) are shown at various velocity ratios:

 clip_image106

 

And the Surface Curvature components are given by:

 clip_image108

 

image

 

  

1.3.       General Spherically Symmetric Metric – Schwarzschild Metric – Non-Euclidean Metric

 

 

It this section, it will be described a “new” generalized mathematical formalism for the Schwarzschild and Einstein “Non-Euclidean” Spherically Symmetric Metrics (clip_image002). A “Non-Euclidean” Spherically Symmetric Metric (clip_image002) is used to describe the causality of “gravity” or curvature of space, space-time, or gravitational field, in the presence of condensed matter, mass, and energy.

 

“Classical Formalism” Spherically Symmetric Metric – Euclidean Metric – Flat Space, Space-time, or Gravitational Field Metric – Mass & Energy Independent

                                                                                                                                                                                                                                               1.11 

clip_image033     -> clip_image035

 

clip_image113

 

 

“New Formalism” Spherically Symmetric Metric – Non-Euclidean Metric – Curved/Warped Space, Space-time, or Gravitational Field– Mass & Energy Dependent

                                                                                                                                                                                                                                               1.12 

clip_image115     -> clip_image035

 

 

clip_image117

 

 

“New Formalism”“Metric “Curvature” Coefficient” (clip_image004)

 

The Non-Euclidean Spherically Symmetric Schwarzschild Metric (clip_image010) named after Karl Schwarzschild (1916) [10], is a mathematical equation that describes, a real curving or warping of physical space, space-time, or a gradient gravitational field, that is spherically symmetric, surrounding a condensed matter, mass (clip_image120), or energy source. The Schwarzschild Metric (clip_image010), is given in spherically symmetric mathematical formalism below;

 

Spherically Symmetric Metric – Schwarzschild (Non-Euclidean) Metric

                                                                                                                                                                                                                                               1.13 

clip_image122 

 

 

 

clip_image124   ® clip_image035

 

 

The above equation is an analogue of the classical Newtonian theory of gravitation, which corresponds to the gravitational field around a matter source; and in the classical Gauss theory of electricity, which corresponds to the electric field around a charge source.

 

clip_image125

  

In Newtonian (clip_image127), “Euclidean Flat Space” Gravitation Theory, the gravitational field, and the attraction between bodies, of differing masses, causes the smaller mass body to orbit the larger mass body; and the smaller mass, has a greater acceleration towards the center of the gradient gravitational field system body.

 

In Schwarzschild Metric (clip_image010) “Non-Euclidean Curved Space” Gravitation Theory, it similarly describes the gravitational field, and the attraction between bodies of differing mass, is caused by the curving or warping of space, space-time, or a gradient gravitational field, by the net inertial mass (clip_image120), of the gravitation system, “carved” out by the inertial mass (clip_image120) of the system.

 

 

clip_image130

 

 

The curvature and gradient gravitational field described by the Schwarzschild Metric (clip_image010), and warping of space caused by the net inertial mass (clip_image120) of the system, and this “forces” the smaller mass body to orbit the gradient gravitational field following a geodesic, in the curved space, space-time, or the gradient gravitational field.

 

The curvature described by the Schwarzschild Metric (clip_image010), also predicts that the closer a test mass body is towards the center of the gradient gravitational field, the greater the “acceleration” the test mass (clip_image132) experiences towards the center, of the system.

 

The Schwarzschild Metric (clip_image010) is a mathematical equation which describes a “geodesic” world “line element” (clip_image006), with spherically symmetric curvature of space-time, in the “presence” of matter or the Net (clip_image135) Mass, of a localized gradient gravitational field; whose space-time extends from the surface of the Black Hole radius (clip_image137) and into infinite (clip_image139) distances of that localized space-time gravity field.

 

The Schwarzschild Metric (clip_image010) predicts that the curvature of space surrounding a “Black Hole” gravity source is equivalent to an Inhomogeneous Gradient Gravitational Field which also obeys the three (3) laws of motion of Keplerian Mechanics, of the gradient gravity field.  

The gradient gravitational field, described by the Schwarzschild (clip_image010) Metric is comprised of an infinite series of “spherical shell potentials”,  that originate at the “Black Hole Event Horizon” spherical volume, and extends into infinite distances, relative to the “Black Hole” source, and center of the gradient gravitational field. This model of the gradient gravity field is also a vortex system.

 

clip_image141

 

In general, each and every one of the concentric spherical shells, or energy potentials of the “inhomogeneous” gradient gravitational field, of the gravitational vortex, is a “homogeneous” gravitational field.

The Schwarzschild Metric (clip_image002), has a Black Hole Event Horizon, at the center of the gravitational field, with a fixed volume (clip_image143) and Schwarzschild Semi-Major Radius (clip_image145) of the inhomogeneous gradient gravitational field.

 

The Schwarzschild Metric (clip_image010) predicts that the source of the inhomogeneous gradient gravitational field is given by Net inertial Mass (clip_image135), and is directly proportional to the “Black Hole” Schwarzschild Semi-Major Radius (clip_image147), and likewise is directly proportional to a localized infinite series, of extended inhomogeneous gradient gravitational field accelerations (clip_image149), relative to the center of the Black Hole Event Horizon.

 

clip_image151

 

The exterior solution of the Schwarzschild Metric (clip_image010), and exterior condition describes the curved physical space of the inhomogeneous gradient gravitational field, which extends, from the surface of the Black Hole Schwarzschild radius (clip_image153), and extends away from the source, into infinite (clip_image139) distances of space, space-time or the gravity field.

 

The Schwarzschild Metric (clip_image010) solution comes in two (2) forms, one is an “exterior solution” gradient gravitational field solution, and the other is an “interior solution” gravitational field solution.

 

The Exterior solution corresponds to the space outside of the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image155).

 

clip_image157

 

The Interior solution corresponds to the space within or inside the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image155).

 

Interior_Solution_equation_1

 

The Schwarzschild and Einstein “Metrics” (clip_image010) and geodesic “line elements” (clip_image006), are “mass dependent” equations that describe the causality of “curved” space, space-time, or the gravitational field. The Schwarzschild Metric (clip_image010) is described below.

 

Spherically Symmetric Metric – Schwarzschild (Non-Euclidean) Metric

1.14 

clip_image122-> clip_image035

 

 

 

The Schwarzschild Metric (clip_image010) must also fit the new mathematical formalism, when using the space-time relations:

                                                                                                                                                                                                                                               1.15 

clip_image161       -> clip_image035    

 

 

Space-time – Square of the Speed of Light

                                                                                                                                                                                                                                               1.16 

clip_image163     -> clip_image066

 

 

Space-time – Square of the Speed of Space (Vacuum Energy Velocity)

                                                                                                                                                                                                                                               1.17 

clip_image068     -> clip_image066

 

 

clip_image165

 

 

 

New Mathematical Formalism – Generalized Spherically Symmetric Metric

                                                                                                                                                                                                                                               1.18 

 

 

clip_image167   -> clip_image035

 

 

 

“New” Schwarzschild Metric “Curvature” Coefficient ─ (clip_image169)

                                                                                                                                                                                                                                               1.19 

clip_image171    -> clip_image173

 

 

 

New Mathematical Formalism – Generalized Spherically Symmetric Schwarzschild (Non-Euclidean) Metric

                                                                                                                                                                                                                                               1.20 

 clip_image175     -> clip_image035

 

 

clip_image167

 

clip_image177

 

The Schwarzschild Metric (clip_image010) must also fit the new mathematical formalism, when the “Speed of Space (Vacuum Energy Velocity)” is equal to the “Speed of Light”; and using the space-time relation (clip_image179):

                                                                                                                                                                                                                                               1.21 

clip_image181

 

“New” Schwarzschild Metric “Curvature” Coefficient ─ (clip_image169)

                                                                                                                                                                                                                                               1.22 

 clip_image184    -> clip_image173

 

 

 

New Generalized Spherically Symmetric Schwarzschild (Non-Euclidean) Metric – for condition (clip_image181); Speed of Space = Speed of Light

                                                                                                                                                                                                                                              1.23 

Space & Angle (Curvature) – Schwarzschild Metric 

 

 

clip_image167  ® clip_image035

 clip_image187     ® clip_image035

 

 

 

clip_image188

 

In all of the “modern literature” written on General Relativity, the Schwarzschild Metric (clip_image002) yields predictable results in the “exterior solution” gravity field region; which extend from the Black Hole Event Horizon of the gradient gravitational field (clip_image190), and into infinite distances (clip_image192), is given in this classical form below.

 

clip_image194

 

The Exterior solution corresponds to the space outside of the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image155).

  

clip_image157

 

 

The Interior solution corresponds to the space within or inside the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image155).

  

Interior_Solution_equation_1

 

 

This “modern literature” written on General Relativity, describes that the Schwarzschild Metric (clip_image010) predicts “Two (2) Singularities” in the localized gradient gravitational field of the metric:

 

There is one “Physical Singularity” located at zero radius (clip_image197) of the gradient gravitational field. (clip_image199)

 

And there is a second “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image201) – (clip_image199).

clip_image204 

 

 

 

 

 

Because the Schwarzschild Metric (clip_image010) predicts the “Physical Singularity” located at zero radius (clip_image197), and the “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image201), of the gradient gravitational field, this has caused the mainstream physics community to reject the Schwarzschild Metric (clip_image010), in favor of: Kruskal–Szekeres coordinates, Eddington–Finkelstein coordinates, and Rindler coordinate; and which neither have a “Coordinate Singularity”.

 

Below is a graph of the Schwarzschild Metric (clip_image010).

 

The Schwarzschild Metric (clip_image010) predicts the “Physical Singularity” located at zero radius, is a value that approaches zero, as the radius approaches zero. The “Physical Singularity” is a natural artifact for any Non-Euclidean metric.

(clip_image207)     Then   (clip_image209)   And clip_image181

 

image

 

 

The “Coordinate Singularity” is not a natural artifact for any Non-Euclidean metric. My goal is to find a solution to the “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image201), of the Schwarzschild Metric (clip_image010).

 

 

 

1.4.       General Spherically Symmetric Metric – Schwarzschild Metric – Non-Euclidean Metric – Dynamic Fluid Pressure Gradient Solution

 

The Schwarzschild “Non-Euclidean” Metric (clip_image010) describes a “dynamic” differential geometry metric, and a line element, that describes the curvature of space, space-time, and the gravitational field; and must be used in conjunction, with a fluid mechanical model, Perfect Fluid “Dynamic” Vacuum Energy Solution for the causality gravitation.

 

The “Schwarzschild Metric” Spherically Symmetric gradient gravitational field vortex system body, describes a dynamic “Refraction/Condensing Pressure” (clip_image213), which changes in direct proportion to one third, the Inertial Volume Mass Density (clip_image215), of the gradient gravitational vortex system body.

clip_image217

 

 

The Schwarzschildsolution, predicts the following equation for the Isotropic Rarefaction Pressure of Gravitation (clip_image219)

                                                                                                                                                                                                                                               1.24 

clip_image221    ->  clip_image223

  

 

clip_image225    ->  clip_image223

 

 

Substituting the Inertial Volume Mass Density ─ (clip_image227)

                                                                                                                                                                                                                                               1.25 

clip_image229

 

 

The “Schwarzschild” Spherically Symmetric Metric (clip_image010) corresponds to a gradient gravitational vortex system, where the, “Refraction/Condensing Pressure” (clip_image231) on the exterior surface, of the Black Hole Event Horizon, is zero; (clip_image233).

 

Isotropic Rarefaction Pressure of Gravitation (clip_image219) at Black Hole Event Horizon (clip_image233)

                                                                                                                                                                                                                                               1.26 

clip_image235

 

clip_image237

 

 

Therefore I believe that the Schwarzschild Solution is the correct solution where the, “Refraction/Condensing Pressure” (clip_image231) on the exterior surface, of the Black Hole Event Horizon, is zero; (clip_image233); and is non-zero everywhere else.

 

The Perfect Fluid “Dynamic” Vacuum Energy Solution above satisfies the Schwarzschild Spherically Symmetric Metric (clip_image010) and “line element” (clip_image006); which is a “mass dependent” equation that describes the causality of “curved” space, space-time, or the gravitational field. The Schwarzschild Metric (clip_image010) is described below.

 

Spherically Symmetric Metric – Schwarzschild (Non-Euclidean) Metric

                                                                                                                                                                                                                                               1.27 

clip_image122 -> clip_image035

 

 

  

clip_image167  -> clip_image035

 

 

 

1.5.       General Spherically Symmetric Metric – Einstein Metric – Non-Euclidean Metric – Static Fluid Pressure Gradient Solution

 

 

Next, we will discuss the Albert Einstein, Spherically Symmetric (clip_image010) Metric. The Einstein Metric (clip_image010) is given by the Static Vacuum Energy Solution and condition.

 

The Einstein “Non-Euclidean” Metric (clip_image010) describes a “static” geometry and a line element, that describes the curvature of space, space-time, and the gravitational field; and must be used in conjunction, with a fluid mechanical model, Perfect Fluid “Static” Vacuum Energy Solution for the causality gravitation.

 

The Einsteinsolution, predicts the following equation for the Isotropic Aether Gravitational Field Pressure (clip_image239)

                                                                                                                                                                                                                                               1.28 

clip_image241      ->  clip_image223

 

Substituting the Inertial Volume Mass Density ─ (clip_image227)

                                                                                                                                                                                                                                               1.29 

clip_image243      ->  clip_image223

 

 

The Einsteinsolution, predicts that the Isotropic Aether Gravitational Field Pressure (clip_image245) varies in direct proportional to one third the Inertial Volume Mass Density (clip_image247) of the gradient gravity field; and varies inversely proportional to the cube of the distance (clip_image249), relative to the center of the gradient gravitational field of a vortex system body.

clip_image251

 

In the Einstein Metric (clip_image010) Static Vacuum Energy Solution the gradient “Rarefaction Pressure” (clip_image253), is inhomogeneous  and distributed in a normalized density gradient, of an infinite series of spherically symmetric shells, of potential energy; including on the surface of the Black Hole Event Horizon.

 

The “Einstein” Spherically Symmetric Metric (clip_image010) corresponds to a gradient gravitational vortex system, where the, “Refraction/Condensing Pressure” (clip_image255) on the exterior surface, of the Black Hole Event Horizon, is non zero; (clip_image233).

 

The fluid mechanical model, Perfect Fluid “Static” Vacuum Energy Solution describes a condition where there is inhomogeneous gradient “Inertial Volume Mass Density” (clip_image257), equal to a “static” fixed value, at the Black Hole Event Horizon.

 

 Isotropic Rarefaction Pressure of Gravitation (clip_image259) at Black Hole Event Horizon (clip_image233)

                                                                                                                                                                                                                                               1.30 

clip_image235

 

 

Isotropic Aether Gravitational Field Pressure (clip_image239) at Black Hole Event Horizon (clip_image233)

                                                                                                                                                                                                                                               1.31 

clip_image262      ->  clip_image223

 

 clip_image264

  

clip_image266

 

 

In the Static Vacuum Energy Solution this condition is described by the Spherically Symmetric, mathematics of the Einstein Metric (clip_image010).

 

Spherically Symmetric Metric – Einstein (Non-Euclidean) Metric

                                                                                                                                                                                                                                               1.32 

clip_image268    -> clip_image035

 

 

 

 clip_image270         ->clip_image035    

  

clip_image271

 

 

The Einstein Metric (clip_image010) solution comes in two (2) forms, one is an “exterior solution” gradient gravitational field solution, and the other is an “interior solution” gravitational field solution.

 

The Exterior solution corresponds to the space outside of the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image155).

 

clip_image157

 

 

The Interior solution corresponds to the space within or inside the Black Hole Event Horizon, and Schwarzschild Semi-Major Radius (clip_image155).

 

Interior_Solution_equation_1

 

 

The Einstein Metric (clip_image010) must also fit the new mathematical formalism, when using the space-time relations, for the speed of light, and the speed of space; given below.

 

Space-time – Square of the Speed of Light

                                                                                                                                                                                                                                               1.33 

clip_image163     -> clip_image066

 

 

Space-time – Square of the Speed of Space (Vacuum Energy Velocity)

                                                                                                                                                                                                                                               1.34 

 clip_image068      ->  clip_image066

 clip_image165

 

 

 

 

1.6.       New Mathematical Formalism – General Spherically Symmetric Metric – Einstein Metric – Non-Euclidean Metric

 

 New Generalized Spherically Symmetric Metric

                                                                                                                                                                                                                                               1.35  

clip_image167  -> clip_image035

 

 

“New” Einstein Metric “Curvature” Coefficient ─ (clip_image276)

                                                                                                                                                                                                                                               1.36 

 clip_image278    -> clip_image173

 

 

 

New Generalized Spherically Symmetric Einstein (Non-Euclidean) Metric

                                                                                                                                                                                                                                               1.37 

Space & Angle (Curvature) – Einstein Metric

 clip_image280

 

 clip_image167   -> clip_image035 clip_image281

 

 

The Einstein Metric (clip_image010) must also fit must also fit the new mathematical formalism, when the “Speed of Space (Vacuum Energy Velocity)” is equal to the “Speed of Light”; and using the space-time relation (clip_image179).

                                                                                                                                                                                                                                               1.38 

clip_image181

 

New” Einstein Metric “Curvature” Coefficient ─ (clip_image276)

                                                                                                                                                                                                                                               1.39 

 clip_image283    -> clip_image173

 

 

New Generalized Spherically Symmetric Einstein (Non-Euclidean) Metric

                                                                                                                                                                                                                                               1.40 

Space & Angle (Curvature) – Einstein Metric

 clip_image285     -> clip_image035

 

  

clip_image287  -> clip_image035     

 

 clip_image288

 

 

The Einstein Metric (clip_image002) yields predictable results in the “exterior solution” gravity field region; which extend from the Black Hole Event Horizon of the gradient gravitational field (clip_image190), and into infinite distances (clip_image192), is given in this classical form below.

 

clip_image194

 

The Einstein Metric (clip_image010) predicts “Two (2) Singularities” in the localized gradient gravitational field of the metric:

 

There is one “Physical Singularity” located at zero radius (clip_image197) of the gradient gravitational field. (clip_image199)

 

And there is a second “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image201) – (clip_image199).

 

clip_image204

 

 

Because the Einstein Metric (clip_image010) predicts a “Physical Singularity” located at zero radius (clip_image197), and a “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image201), of the gradient gravitational field, this has caused the mainstream physics community to reject the Einstein Metric (clip_image010), in favor of: Kruskal–Szekeres coordinates, Eddington–Finkelstein coordinates, and Rindler coordinate; and which neither have a “Coordinate Singularity”.

 

Below is a graph of the Einstein Metric (clip_image010).

 

The Einstein Metric (clip_image010) predicts the “Physical Singularity” located at zero radius, is a value that approaches zero, as the radius approaches zero. The “Physical Singularity” is a natural artifact for any Non-Euclidean metric.

 

(clip_image207)                 Then               (clip_image209)

 And clip_image181

 

image

 

The “Coordinate Singularity” is not a natural artifact for any Non-Euclidean metric. My goal is to find a solution to the “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image201), of the Schwarzschild Metric (clip_image010).

 

The Einstein Metric (clip_image010) & Schwarzschild Metric (clip_image010)

image

 

 

The Euclidean Metric (clip_image010), Minkowski Metric (clip_image010),Einstein Metric (clip_image010), & Schwarzschild Metric (clip_image010)

image

 

2.   Conclusion

 

This work was written to physicists that are interested in understanding from a conceptual view, the rationale for selecting “Flat Geometry” Euclidean Space, or selecting a “Curved Geometry” Non-Euclidean Space; and whether to choose the Einstein Metric or the Schwarzschild Metric, as description for causality of gravity, or general motion in a gravitational field.

 

This paper described the conceptual and mathematical description of the differential geometry, of flat and curved space, space-time, or gravitational fields, using the “metric theory” mathematics of Euclidean, Minkowski, Einstein, and Schwarzschild, Spherically Symmetric metrics, and geodesic line elements.

 

This paper also gives a new generalized mathematical formalism for describing “Non-Euclidean” Spherically Symmetric Metrics, of space, space-time, or the gravitational field, using a generalized “Metric “Curvature” ( clip_image004) Coefficient”.

 

It was demonstrated that the Non-Euclidean Spherically Symmetric Metric (clip_image010) equations predicts that there is a “Physical Singularity” located at zero radius (clip_image197), and a “Coordinate Singularity” located at the Black Hole Event Horizon, Schwarzschild Radius (clip_image201), of the gradient gravitational field, in consideration.

 

The “Physical Singularity” is the approaching of an infinity small number as “space and time” approaches zero in the center, of gradient gravitational field of any isolated and localized, gravitational vortex system body, and is a natural artifact of a Non-Euclidean space, space-time, or gravitational field.

 

The “Coordinate Singularity” is a “problem”, and is the approaching of an infinity large number as “space and time” approaches the Black Hole Event Horizon, Schwarzschild Radius (clip_image201), of the gradient gravitational field, of any isolated and localized, gravitational vortex system body. The “Coordinate Singularity” is an anomaly, in the mathematics of a particular choice of Non-Euclidean Spherically Symmetric Metric (clip_image010) equation, used to describe the localized space, space-time, or gravitational field, in consideration.

 

In another paper I will present a solution to this “Coordinate Singularity” problem!

 

The Schwarzschild and the Einstein “Non-Euclidean” Metrics (clip_image010) as discussed in this paper, describes the causality and geometry, of the curvature of space, space-time, and the gravitational field, and is used in conjunction, with a fluid mechanical model, Perfect Fluid “Static or Dynamic” Vacuum Energy Solution for the causality gravitation.

 

This paper postulates a “Vacuum Energy Perfect Fluid” model and a “Dark Matter Force and Pressure” associated with the Non-Euclidean Spherically Symmetric metric equations, and also gives a conceptual and mathematical description and rationale, for selecting the Schwarzschild Metric over the Einstein Metric, as a physical description of the gradient gravitational, field surrounding a localized net inertial mass/matter source.

 

In the next paper, I will discuss the specifics of the “Vacuum Energy Perfect Fluid” model and a “Dark Matter Force and Pressure” associated with the Non-Euclidean Spherically Symmetric metric equations.

 

 Below are the topics that were discussed in this paper:

 

·         1.1       Introduction to Basic Concepts of Euclidean and Non-Euclidean Geometry and Spherically Symmetric Metrics

  

·         1.2       General Spherically Symmetric Metric – Euclidean and Minkowski (Pseudo-Euclidean) Metrics

  

·         1.3       General Spherically Symmetric Metric – Schwarzschild Metric – Non-Euclidean Metric

 

 

·         1.4       General Spherically Symmetric Metric – Schwarzschild Metric – Non-Euclidean Metric – Dynamic Fluid Pressure Gradient Solution

  

·         1.5       General Spherically Symmetric Metric – Einstein Metric – Non-Euclidean Metric – Static Fluid Pressure Gradient Solution

  

·         1.6       New Mathematical Formalism – General Spherically Symmetric Metric – Einstein Metric – Non-Euclidean Metric

 

 

References

 

 

[1]        Physical Acceptability of Isolated, Static, Spherically Symmetric, Perfect Fluid Solutions of Einstein’s Equations, M.S.R. Delgaty and Kayll Lake1, Department of Physics, Queen’s University, Kingston Ontario, Canada K7L 3N6 (Dated: Septem 1998): http://arxiv.org/pdf/gr-qc/9809013v1.pdf

 

 

[2]        Generating perfect fluid spheres in general relativity, Petarpa Boonserm, Matt Visser, and Silke Weinfurtner, School of Mathematics, Statistics, and Computer Science, Victoria University of Wellington,PO Box 600, Wellington, New Zealand (Dated: March 2005 – February 6, 2008): http://arxiv.org/pdf/gr-qc/0503007v1.pdf(Pages: 13 – 16)

 

[3]        Karl Friedrich Gauss, General Investigations of Curved Surfaces of 1827 and 1825, The Project Gutenberg EBook of General Investigations of Curved Surfaces of 1827 and 1825, by Karl Friedrich Gauss: http://www.gutenberg.org/files/36856/36856-pdf.pdf

 

 

[4]        Gauss Law – Theorema Egregium:

            http://en.wikipedia.org/wiki/Theorema_Egregium

 

 

[5]        List of Differential Geometry Topics (Wikipedia): http://en.wikipedia.org/wiki/List_of_differential_geometry_topics

 

 

[6]        D.F. Lawden. Introduction to Tensor Calculus, Relativity and Cosmology; Dover Publications; 3 edition (January 27, 2003), ISBN 978-0486425405 pp. 6-10

 

[7]        Minkowski, Hermann (1907/8), “Die Grundgleichungen für die elektromagnetischen Vorgänge in bewegten Körpern“, Nachrichten von der Gesellschaft der Wissenschaften zu Göttingen, Mathematisch-Physikalische Klasse: 53–111 *** Wikisource translation: The Fundamental Equations for Electromagnetic Processes in Moving Bodies. http://en.wikipedia.org/wiki/Differential_geometry_of_surfaces

 

 

[8]        List Of Differential Geometry Topics:

 

            http://en.wikipedia.org/wiki/List_of_differential_geometry_topics

[9]        Einstein’s Paper: “Explanation of the Perihelion Motion of Mercury from General Relativity Theory”; Anatoli Andrei Vankov; IPPE, Obninsk, Russia; Bethany College, KS, USA:

http://www.gsjournal.net/old/eeuro/vankov.pdf

 

[10]      Schwarzschild, K. (1916). “Über das Gravitationsfeld eines Massenpunktes nach der Einstein’schen Theorie”. Sitzungsberichte der Königlich Preussischen Akademie der Wissenschaften 1: 189–196: text of the original paper, in Wikisource: http://de.wikisource.org/wiki/%C3%9Cber_das_Gravitationsfeld_eines_Massenpunktes_nach_der_Einsteinschen_Theorie

 

[11]      Schwarzschild Geodesics:

            http://en.wikipedia.org/wiki/Schwarzschild_geodesics

 

 

[12]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics – The General Theory of Relativity.” ISBN 978-0-9841518-2-0, Flying Car Publishing Company, July 2010, pp. 20-21.

 

 

[13]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2011/12/23/inertial-mass-vortex-gravitation-theory-continued-part-3/

 

 

[14]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/01/28/total-mechanical-energy-conservation-escape-velocity-binding-energy-einstein-field-equation/

 

 

[15]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/01/16/a-theory-of-gravity-for-the-21st-century-the-gravitational-force-and-potential-energy-in-consideration-with-special-relativity-general-relativity/

 

 

 

[16]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/05/29/newtonian-self-gravitational-force-video-lecture/

 

 

[17]      Robert Louis Kemp. “Super Principia Mathematica – The Rage To Master Conceptual & Mathematical Physics –

            https://superprincipia.wordpress.com/2012/11/08/conditions-for-the-absence-and-presence-of-matter-in-general-relativity-gr-einstein-field-equations-efes/

 

 

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Conditions for the Absence and Presence of Matter in General Relativity (GR) – Einstein Field Equations (EFEs)

Paper – Conditions for the Absence and Presence of Matter in General Relativity (GR) – Einstein Field Equations (EFEs)

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PDFConditions for the Absence and Presence of Matter in General Relativity (GR) – Einstein Field Equations (EFEs)

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Web version: Conditions for the Absence and Presence of Matter in General Relativity (GR) – Einstein Field Equations (EFEs)

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Abstract

In this paper the various “presence of matter” and “absence of matter” conditions, in gravitational field regions, of the vacuum of space-time, in the General Relativity (GR) Einstein Field Equations (EFEs) is discussed. The Static & Dynamic Vacuum Solutions of the (EFEs) and the various conditions are discussed using simplified Classical Mathematics and Mechanics.

Predicted in the various “absence of matter” or “presence of matter” conditions of the (EFEs), “empty space” is shown to be filled with “Electromagnetic Heat Radiation Energy” or “Dark Expansion Space Energy” in gravitational field regions, of the vacuum of space-time, where there is no mass present in that location. Furthermore, it will be validated in the mathematics, of General Relativity (GR), and the Einstein Field Equations (EFEs), that the solution of the Black Hole Event Horizon, describes the maximum curvature, and the smallest, infinitesimal, most minimum space-time distance, of a gravitational field.

 Keywords: General Relativity, Special Relativity, Einstein Field Equation, Gravitational Field, Heat Radiation Gravitation, Dark Energy Gravitation, Black Hole Event Horizon, Principle of Equivalence, Mass-Energy Equivalence, Vacuum Solution

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PDFConditions for the Absence and Presence of Matter in General Relativity (GR) – Einstein Field Equations (EFEs)

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Web version: Conditions for the Absence and Presence of Matter in General Relativity (GR) – Einstein Field Equations (EFEs)

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Best,

All Comments are welcome.

Author: Robert Louis Kemp

http://www.SuperPrincipia.com

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