SlideShare a Scribd company logo
1 of 3
Download to read offline
Gravity and the entropy equation of a black hole
Corresponding author: Eran Sinbar, Ela 13, Shorashim, Misgav, 2016400, Israel,
Telephone: +972-4-9028428, Mobile phone: +972-523-713024,
Email: eyoran2016@gmail.com
Abstract
Based on Prof. Bekenstein and Prof. Hawking, the black hole maximal entropy[1], the
maximum amount of information that a black hole can conceal, beyond its event
horizon, is proportional to the area of its event horizon surface divided by quantized
area units, in the scale of Planck area (the square of Planck length). This is a surprising
result since it limits the amount of information bits that are concealed in a volume of
space to the amount of Planck area units that can fit into its surrounding surface area
and not into its volume. This lead to the holographic principle idea [2] by reducing our
standard three dimensional (3D) space into a two dimensional space (2D). This paper
will suggest a new approach in which we add extra dimensions and quantize our
standard three dimensional space in order to explain this surprising result of the
Hawking Bekenstein formula. From this new approach gravitational time dilation
emerges leading towards the Einstein field equations.
Introduction
The Hawking Bekenstein equation of black hole entropy, limits the amount of the
entropy in the volume of space within the event horizon to be proportional to the area
of the event horizon divided by Planck’s area (the square of Planck’s length). Since any
volume of space will contain less information than a black hole, the information in a
sphere is limited by its surrounding surface divided by Planck area units. This means
that the entire information bits in our observable universe is limited by its surrounding
surface area divided by Planck area sized units. This lead to the idea that our observable
universe is a two dimensional hologram spread on the surface of its surrounding sphere.
The main problem with the holographic approach is, that it requires a two dimensional
universe while based on our physical experience and measurements, we live in a
symmetrical three dimensional space, isotropic and homogenous in all three
dimensions. This paper suggests another approach in which we redefine our standard
three dimensional space as quantized, local, Planck length sized three dimensional units
“floating” in another non local three dimensional space that this paper will refer to as
the grid dimension (figure 1). The non-local grid dimension can explain the non-locality
of quantum entanglement, quantum tunneling, the Schrodinger wave equation and the
quantum entanglement between the information in a volume of space and the
information on the surface of its surrounding sphere (The Bekenstein- Hawking
formula).
Figure 1: Like a Swiss cheese, the local standard space is quantized into space units in the size
of Planck length in each dimension and is illustrated like floating blue bubbles in different
distances. The gray void in which these bubbles float in, illustrates the non-local three
dimensional extra grid dimension. The non-locality of the grid dimension enables non local
quantum entanglement between any two separated quantized units of space. The non-locality
of the grid dimension dictates that the information concealed in a volume of space will be
projected to its surrounding surface. This is another way to explain the Bekenstein Hawking
formula without giving up on our experience regarding an isotropic, symmetric, homogeneous,
three dimensional space.
Conclusion
By quantizing space and adding a non-local grid like dimension we can explain the
Hawking - Bekenstein information (entropy) formula without giving up our daily
experience of a three dimensional, symmetrical, homogeneous and isotropic space. The
non-locality features of the grid dimension model requires that the information within
a sphere of space is entangled to its surrounding surface at all time spreading the
information throughout the surrounding surface of the sphere. Due to energy
conservation considerations, this entangled information on the surrounding surface of
the sphere, comes in the form of the virtual particles that pop in and out of existence
(the quantum fluctuations [3]). These quantum fluctuations can be measured by the
Casimir effect [4] as a function of the gravitational field (the Casimir effect is expected
to increase proportional to the increase in the gravitational field due to the increase of
information projected to the surface of the sphere). The Heisenberg uncertainty
principle [5] emerges from the quantum fluctuation projecting the concealed
information within the sphere to its surrounding surface. During the phase in which the
quantum fluctuations on the surface of the sphere rearrange themselves, until they fully
project the information within the sphere, time as we define it stays still. Since our
standard space is quantized to Planck length sized units and since all these units are
entangled through the grid dimension, the number of information bits within a sphere
is limited to the area of its surrounding surface divided by the area of a space unit which
is the Planck area (the Hawking - Bekenstein information/entropy formula). As the
number of information bits increase within the sphere and consequently on the
surrounding surface of the sphere, the number of quantized space units who are not
occupied by virtual particles at a specific moment decrease and it takes a longer time
for the virtual particles on the surrounding surface of the sphere to re arrange
themselves (to fluctuate) in a way that will not lose the total information within the
sphere. This slowdown in the re arrangement of the quantum fluctuations is the
gravitational time dilation. This leads to the idea that the rhythm of time on the
surrounding surface of a sphere emerges as the quantum fluctuations on the surrounding
surface of a sphere rearrange in a way that the projected information from within the
sphere will not be lost (figure 2). Gravity emerges from the gradient in the rhythm of
time throughout space-time as described by the Einstein general relativity equations.
The grid dimension is an extra non local three dimensional space dividing our standard
three dimensional space into quantized Planck sized three dimensional local units. The
maximum speed for energy transportation, is limited for each pulse of Planck time, to
one leap of Planck sized local space unit, and from this limit, the speed of light emerges.
So by quantizing space time and adding the non-local grid dimension we get a holistic
image that can explain the Bekenstein Hawking black hole information formula, the
non-locality of quantum entanglement (“spooky action at a distance “ – Albert
Einstein), the speed of light limitations, definition of time and gravity.
Figure 2: The grid dimension (illustrated as a black grid) entangles the information concealed within
a sphere, with the quantum fluctuations of virtual particles on any surrounding surface of the sphere
(illustrated as the blue and red dots). The white rectangles on the sphere represent the quantized units
of our standard space-time. The rectangles with the dots are the occupied space units. The empty
rectangles without the dots are the non-occupied space units. Like in the case of electrons in an atom
which tend to fill their energy level bottom up, gravity curves space time connecting together mass
A and mass B. When mass A and B connect they increase the amount of information which is spread
on any joint surrounding surface of their sphere in the form of quantum fluctuations. As the
information within the sphere increases, the number of quantized space units on the surface of the
sphere which are not occupied with information decreases. This decrease is equivalent to a decrease
in the degrees of freedom for rearranging the information during the quantum fluctuations. The
quantum fluctuations on the surface of the sphere slow down due to the longer time needed to re
arrange the fluctuations without losing the information concealed within the sphere. It is as if the
quantum fluctuations need to rearrange a “puzzle” every time it fluctuates. As the “puzzle” becomes
more complicated the longer it takes to fluctuate and coordinate all the pieces of the puzzle together
without losing information. This slowdown in the quantum fluctuations is the gravitational time
dilation. The gravitational time dilation curve space-time as described by Einstein’s field equations.
Based on Heisenberg uncertainty principle (∆𝐸 ∗ ∆𝑡 ≥ ℎ), as the time between fluctuations (∆𝑡)
increases , the energy of the quantum fluctuations (∆𝐸) decreases. Gravity tends to slow time and
decrease the energy of the quantum fluctuations and it emerges from the quantized local space
divided by the non-local grid dimension which are the Yin and Yang of space-time.
REFERENCES:
[1] https://journals.aps.org/prd/abstract/10.1103/PhysRevD.7.2333
[2] https://arxiv.org/abs/hep-th/9409089
[3] https://en.wikipedia.org/wiki/Quantum_fluctuation
[4] https://journals.aps.org/pr/abstract/10.1103/PhysRev.73.360
[5] https://en.wikipedia.org/wiki/Uncertainty_principle

More Related Content

Similar to Gravity and the entropy equation of a black hole .pdf

The Entropy of the Entangled Hawking Radiation
The Entropy of the Entangled Hawking RadiationThe Entropy of the Entangled Hawking Radiation
The Entropy of the Entangled Hawking Radiation
Olivier Denis
 
The entropy of the entangled Hawking radiation
The entropy of the entangled Hawking radiationThe entropy of the entangled Hawking radiation
The entropy of the entangled Hawking radiation
OlivierDenis15
 
Galaxy Rotation Problem
Galaxy Rotation ProblemGalaxy Rotation Problem
Galaxy Rotation Problem
John Huenefeld
 
Interference with entanglement
Interference with entanglementInterference with entanglement
Interference with entanglement
Eran Sinbar
 
Translocations In Space-Time and Simultaneous States of the Universe: Converg...
Translocations In Space-Time and Simultaneous States of the Universe: Converg...Translocations In Space-Time and Simultaneous States of the Universe: Converg...
Translocations In Space-Time and Simultaneous States of the Universe: Converg...
Journal of Advances in Physics
 

Similar to Gravity and the entropy equation of a black hole .pdf (20)

A new approach to the higgs field
A new approach to the higgs fieldA new approach to the higgs field
A new approach to the higgs field
 
String theory and the grid dimension.pdf
String theory and the grid dimension.pdfString theory and the grid dimension.pdf
String theory and the grid dimension.pdf
 
Quantized space time and dark matter
Quantized space time and dark matter Quantized space time and dark matter
Quantized space time and dark matter
 
The grid extra dimensions theory
The grid extra dimensions theoryThe grid extra dimensions theory
The grid extra dimensions theory
 
The symbiosis of the grid pattern extra dimensions
The symbiosis of the  grid pattern extra dimensionsThe symbiosis of the  grid pattern extra dimensions
The symbiosis of the grid pattern extra dimensions
 
Senior_Project
Senior_ProjectSenior_Project
Senior_Project
 
Quantized fabric of space and time theory
Quantized fabric of space and time theoryQuantized fabric of space and time theory
Quantized fabric of space and time theory
 
The Entropy of the Entangled Hawking Radiation
The Entropy of the Entangled Hawking RadiationThe Entropy of the Entangled Hawking Radiation
The Entropy of the Entangled Hawking Radiation
 
The entropy of the entangled Hawking radiation
The entropy of the entangled Hawking radiationThe entropy of the entangled Hawking radiation
The entropy of the entangled Hawking radiation
 
The field of reference frames approach.pdf
The field of reference frames approach.pdfThe field of reference frames approach.pdf
The field of reference frames approach.pdf
 
Galaxy Rotation Problem
Galaxy Rotation ProblemGalaxy Rotation Problem
Galaxy Rotation Problem
 
Interference with entanglement
Interference with entanglementInterference with entanglement
Interference with entanglement
 
Quantization of photonic energy and photonic wave length
Quantization of photonic energy and photonic wave lengthQuantization of photonic energy and photonic wave length
Quantization of photonic energy and photonic wave length
 
Quantum signatures of black hole mass superpositions
Quantum signatures of black hole mass superpositionsQuantum signatures of black hole mass superpositions
Quantum signatures of black hole mass superpositions
 
Ian Weinberg - Theory of Universal Oscillation
Ian Weinberg - Theory of Universal OscillationIan Weinberg - Theory of Universal Oscillation
Ian Weinberg - Theory of Universal Oscillation
 
Wormholes and the grid dimensions.pdf
Wormholes and the grid dimensions.pdfWormholes and the grid dimensions.pdf
Wormholes and the grid dimensions.pdf
 
The arrow of time
The arrow of timeThe arrow of time
The arrow of time
 
Heuristic approach for quantized space & time
Heuristic approach for quantized space & timeHeuristic approach for quantized space & time
Heuristic approach for quantized space & time
 
Visualizing extra dimensions
Visualizing extra dimensions Visualizing extra dimensions
Visualizing extra dimensions
 
Translocations In Space-Time and Simultaneous States of the Universe: Converg...
Translocations In Space-Time and Simultaneous States of the Universe: Converg...Translocations In Space-Time and Simultaneous States of the Universe: Converg...
Translocations In Space-Time and Simultaneous States of the Universe: Converg...
 

More from Eran Sinbar

Gravity and the cosmic microwave background radiation (cmbr)
Gravity and the cosmic microwave background radiation (cmbr)Gravity and the cosmic microwave background radiation (cmbr)
Gravity and the cosmic microwave background radiation (cmbr)
Eran Sinbar
 
Schrodinger's cat in the time domain
Schrodinger's cat in the time domain Schrodinger's cat in the time domain
Schrodinger's cat in the time domain
Eran Sinbar
 

More from Eran Sinbar (17)

Wave length and gravitation.pdf
Wave length and gravitation.pdfWave length and gravitation.pdf
Wave length and gravitation.pdf
 
Riding on a beam of light .pdf
Riding on a beam of light .pdfRiding on a beam of light .pdf
Riding on a beam of light .pdf
 
Black holes and the expansion of space .pdf
Black holes and the expansion of space .pdfBlack holes and the expansion of space .pdf
Black holes and the expansion of space .pdf
 
The Newton bucket argument and the quantized space-time model.pdf
The Newton bucket argument and the quantized space-time model.pdfThe Newton bucket argument and the quantized space-time model.pdf
The Newton bucket argument and the quantized space-time model.pdf
 
The twins paradox and quantized space time .pdf
The twins paradox and quantized space time .pdfThe twins paradox and quantized space time .pdf
The twins paradox and quantized space time .pdf
 
Visualizing non local connections through space-time.pdf
Visualizing non local connections through space-time.pdfVisualizing non local connections through space-time.pdf
Visualizing non local connections through space-time.pdf
 
Adding a gravitational waves detector to the double slit experiment.pdf
Adding a gravitational waves detector to the double slit experiment.pdfAdding a gravitational waves detector to the double slit experiment.pdf
Adding a gravitational waves detector to the double slit experiment.pdf
 
Gravity and the cosmic microwave background radiation (cmbr)
Gravity and the cosmic microwave background radiation (cmbr)Gravity and the cosmic microwave background radiation (cmbr)
Gravity and the cosmic microwave background radiation (cmbr)
 
The information paradox of schrodinger's cat in a black hole
The information paradox of schrodinger's cat in a black holeThe information paradox of schrodinger's cat in a black hole
The information paradox of schrodinger's cat in a black hole
 
Black hole event horizon gravitational firewall
Black hole event horizon gravitational firewall Black hole event horizon gravitational firewall
Black hole event horizon gravitational firewall
 
The big bang and the hawking radiation in a photonic dominated space time
The big bang and the hawking radiation in a photonic dominated space timeThe big bang and the hawking radiation in a photonic dominated space time
The big bang and the hawking radiation in a photonic dominated space time
 
Schrodinger's cat in the time domain
Schrodinger's cat in the time domain Schrodinger's cat in the time domain
Schrodinger's cat in the time domain
 
The vacuum catastrophe
The vacuum catastropheThe vacuum catastrophe
The vacuum catastrophe
 
A new approach to dark matter
A new approach to dark matterA new approach to dark matter
A new approach to dark matter
 
A new approach to dark matter
A new approach to dark matterA new approach to dark matter
A new approach to dark matter
 
Virtual particles in the vacuum and gravity
Virtual particles in the vacuum and gravityVirtual particles in the vacuum and gravity
Virtual particles in the vacuum and gravity
 
The black hole catastrophe paradox
The black hole catastrophe paradox The black hole catastrophe paradox
The black hole catastrophe paradox
 

Recently uploaded

POGONATUM : morphology, anatomy, reproduction etc.
POGONATUM : morphology, anatomy, reproduction etc.POGONATUM : morphology, anatomy, reproduction etc.
POGONATUM : morphology, anatomy, reproduction etc.
Silpa
 
development of diagnostic enzyme assay to detect leuser virus
development of diagnostic enzyme assay to detect leuser virusdevelopment of diagnostic enzyme assay to detect leuser virus
development of diagnostic enzyme assay to detect leuser virus
NazaninKarimi6
 
Biogenic Sulfur Gases as Biosignatures on Temperate Sub-Neptune Waterworlds
Biogenic Sulfur Gases as Biosignatures on Temperate Sub-Neptune WaterworldsBiogenic Sulfur Gases as Biosignatures on Temperate Sub-Neptune Waterworlds
Biogenic Sulfur Gases as Biosignatures on Temperate Sub-Neptune Waterworlds
Sérgio Sacani
 
CYTOGENETIC MAP................ ppt.pptx
CYTOGENETIC MAP................ ppt.pptxCYTOGENETIC MAP................ ppt.pptx
CYTOGENETIC MAP................ ppt.pptx
Silpa
 
biology HL practice questions IB BIOLOGY
biology HL practice questions IB BIOLOGYbiology HL practice questions IB BIOLOGY
biology HL practice questions IB BIOLOGY
1301aanya
 
Reboulia: features, anatomy, morphology etc.
Reboulia: features, anatomy, morphology etc.Reboulia: features, anatomy, morphology etc.
Reboulia: features, anatomy, morphology etc.
Silpa
 

Recently uploaded (20)

Use of mutants in understanding seedling development.pptx
Use of mutants in understanding seedling development.pptxUse of mutants in understanding seedling development.pptx
Use of mutants in understanding seedling development.pptx
 
module for grade 9 for distance learning
module for grade 9 for distance learningmodule for grade 9 for distance learning
module for grade 9 for distance learning
 
PSYCHOSOCIAL NEEDS. in nursing II sem pptx
PSYCHOSOCIAL NEEDS. in nursing II sem pptxPSYCHOSOCIAL NEEDS. in nursing II sem pptx
PSYCHOSOCIAL NEEDS. in nursing II sem pptx
 
Zoology 5th semester notes( Sumit_yadav).pdf
Zoology 5th semester notes( Sumit_yadav).pdfZoology 5th semester notes( Sumit_yadav).pdf
Zoology 5th semester notes( Sumit_yadav).pdf
 
POGONATUM : morphology, anatomy, reproduction etc.
POGONATUM : morphology, anatomy, reproduction etc.POGONATUM : morphology, anatomy, reproduction etc.
POGONATUM : morphology, anatomy, reproduction etc.
 
Dr. E. Muralinath_ Blood indices_clinical aspects
Dr. E. Muralinath_ Blood indices_clinical  aspectsDr. E. Muralinath_ Blood indices_clinical  aspects
Dr. E. Muralinath_ Blood indices_clinical aspects
 
Human & Veterinary Respiratory Physilogy_DR.E.Muralinath_Associate Professor....
Human & Veterinary Respiratory Physilogy_DR.E.Muralinath_Associate Professor....Human & Veterinary Respiratory Physilogy_DR.E.Muralinath_Associate Professor....
Human & Veterinary Respiratory Physilogy_DR.E.Muralinath_Associate Professor....
 
development of diagnostic enzyme assay to detect leuser virus
development of diagnostic enzyme assay to detect leuser virusdevelopment of diagnostic enzyme assay to detect leuser virus
development of diagnostic enzyme assay to detect leuser virus
 
FAIRSpectra - Enabling the FAIRification of Analytical Science
FAIRSpectra - Enabling the FAIRification of Analytical ScienceFAIRSpectra - Enabling the FAIRification of Analytical Science
FAIRSpectra - Enabling the FAIRification of Analytical Science
 
Grade 7 - Lesson 1 - Microscope and Its Functions
Grade 7 - Lesson 1 - Microscope and Its FunctionsGrade 7 - Lesson 1 - Microscope and Its Functions
Grade 7 - Lesson 1 - Microscope and Its Functions
 
FAIRSpectra - Enabling the FAIRification of Spectroscopy and Spectrometry
FAIRSpectra - Enabling the FAIRification of Spectroscopy and SpectrometryFAIRSpectra - Enabling the FAIRification of Spectroscopy and Spectrometry
FAIRSpectra - Enabling the FAIRification of Spectroscopy and Spectrometry
 
GBSN - Biochemistry (Unit 2) Basic concept of organic chemistry
GBSN - Biochemistry (Unit 2) Basic concept of organic chemistry GBSN - Biochemistry (Unit 2) Basic concept of organic chemistry
GBSN - Biochemistry (Unit 2) Basic concept of organic chemistry
 
Role of AI in seed science Predictive modelling and Beyond.pptx
Role of AI in seed science  Predictive modelling and  Beyond.pptxRole of AI in seed science  Predictive modelling and  Beyond.pptx
Role of AI in seed science Predictive modelling and Beyond.pptx
 
Biogenic Sulfur Gases as Biosignatures on Temperate Sub-Neptune Waterworlds
Biogenic Sulfur Gases as Biosignatures on Temperate Sub-Neptune WaterworldsBiogenic Sulfur Gases as Biosignatures on Temperate Sub-Neptune Waterworlds
Biogenic Sulfur Gases as Biosignatures on Temperate Sub-Neptune Waterworlds
 
Selaginella: features, morphology ,anatomy and reproduction.
Selaginella: features, morphology ,anatomy and reproduction.Selaginella: features, morphology ,anatomy and reproduction.
Selaginella: features, morphology ,anatomy and reproduction.
 
CYTOGENETIC MAP................ ppt.pptx
CYTOGENETIC MAP................ ppt.pptxCYTOGENETIC MAP................ ppt.pptx
CYTOGENETIC MAP................ ppt.pptx
 
biology HL practice questions IB BIOLOGY
biology HL practice questions IB BIOLOGYbiology HL practice questions IB BIOLOGY
biology HL practice questions IB BIOLOGY
 
Reboulia: features, anatomy, morphology etc.
Reboulia: features, anatomy, morphology etc.Reboulia: features, anatomy, morphology etc.
Reboulia: features, anatomy, morphology etc.
 
Chemistry 5th semester paper 1st Notes.pdf
Chemistry 5th semester paper 1st Notes.pdfChemistry 5th semester paper 1st Notes.pdf
Chemistry 5th semester paper 1st Notes.pdf
 
Call Girls Ahmedabad +917728919243 call me Independent Escort Service
Call Girls Ahmedabad +917728919243 call me Independent Escort ServiceCall Girls Ahmedabad +917728919243 call me Independent Escort Service
Call Girls Ahmedabad +917728919243 call me Independent Escort Service
 

Gravity and the entropy equation of a black hole .pdf

  • 1. Gravity and the entropy equation of a black hole Corresponding author: Eran Sinbar, Ela 13, Shorashim, Misgav, 2016400, Israel, Telephone: +972-4-9028428, Mobile phone: +972-523-713024, Email: eyoran2016@gmail.com Abstract Based on Prof. Bekenstein and Prof. Hawking, the black hole maximal entropy[1], the maximum amount of information that a black hole can conceal, beyond its event horizon, is proportional to the area of its event horizon surface divided by quantized area units, in the scale of Planck area (the square of Planck length). This is a surprising result since it limits the amount of information bits that are concealed in a volume of space to the amount of Planck area units that can fit into its surrounding surface area and not into its volume. This lead to the holographic principle idea [2] by reducing our standard three dimensional (3D) space into a two dimensional space (2D). This paper will suggest a new approach in which we add extra dimensions and quantize our standard three dimensional space in order to explain this surprising result of the Hawking Bekenstein formula. From this new approach gravitational time dilation emerges leading towards the Einstein field equations. Introduction The Hawking Bekenstein equation of black hole entropy, limits the amount of the entropy in the volume of space within the event horizon to be proportional to the area of the event horizon divided by Planck’s area (the square of Planck’s length). Since any volume of space will contain less information than a black hole, the information in a sphere is limited by its surrounding surface divided by Planck area units. This means that the entire information bits in our observable universe is limited by its surrounding surface area divided by Planck area sized units. This lead to the idea that our observable universe is a two dimensional hologram spread on the surface of its surrounding sphere. The main problem with the holographic approach is, that it requires a two dimensional universe while based on our physical experience and measurements, we live in a symmetrical three dimensional space, isotropic and homogenous in all three dimensions. This paper suggests another approach in which we redefine our standard three dimensional space as quantized, local, Planck length sized three dimensional units “floating” in another non local three dimensional space that this paper will refer to as the grid dimension (figure 1). The non-local grid dimension can explain the non-locality of quantum entanglement, quantum tunneling, the Schrodinger wave equation and the quantum entanglement between the information in a volume of space and the information on the surface of its surrounding sphere (The Bekenstein- Hawking formula).
  • 2. Figure 1: Like a Swiss cheese, the local standard space is quantized into space units in the size of Planck length in each dimension and is illustrated like floating blue bubbles in different distances. The gray void in which these bubbles float in, illustrates the non-local three dimensional extra grid dimension. The non-locality of the grid dimension enables non local quantum entanglement between any two separated quantized units of space. The non-locality of the grid dimension dictates that the information concealed in a volume of space will be projected to its surrounding surface. This is another way to explain the Bekenstein Hawking formula without giving up on our experience regarding an isotropic, symmetric, homogeneous, three dimensional space. Conclusion By quantizing space and adding a non-local grid like dimension we can explain the Hawking - Bekenstein information (entropy) formula without giving up our daily experience of a three dimensional, symmetrical, homogeneous and isotropic space. The non-locality features of the grid dimension model requires that the information within a sphere of space is entangled to its surrounding surface at all time spreading the information throughout the surrounding surface of the sphere. Due to energy conservation considerations, this entangled information on the surrounding surface of the sphere, comes in the form of the virtual particles that pop in and out of existence (the quantum fluctuations [3]). These quantum fluctuations can be measured by the Casimir effect [4] as a function of the gravitational field (the Casimir effect is expected to increase proportional to the increase in the gravitational field due to the increase of information projected to the surface of the sphere). The Heisenberg uncertainty principle [5] emerges from the quantum fluctuation projecting the concealed information within the sphere to its surrounding surface. During the phase in which the quantum fluctuations on the surface of the sphere rearrange themselves, until they fully project the information within the sphere, time as we define it stays still. Since our standard space is quantized to Planck length sized units and since all these units are entangled through the grid dimension, the number of information bits within a sphere is limited to the area of its surrounding surface divided by the area of a space unit which is the Planck area (the Hawking - Bekenstein information/entropy formula). As the number of information bits increase within the sphere and consequently on the surrounding surface of the sphere, the number of quantized space units who are not occupied by virtual particles at a specific moment decrease and it takes a longer time for the virtual particles on the surrounding surface of the sphere to re arrange themselves (to fluctuate) in a way that will not lose the total information within the sphere. This slowdown in the re arrangement of the quantum fluctuations is the gravitational time dilation. This leads to the idea that the rhythm of time on the surrounding surface of a sphere emerges as the quantum fluctuations on the surrounding surface of a sphere rearrange in a way that the projected information from within the sphere will not be lost (figure 2). Gravity emerges from the gradient in the rhythm of time throughout space-time as described by the Einstein general relativity equations. The grid dimension is an extra non local three dimensional space dividing our standard three dimensional space into quantized Planck sized three dimensional local units. The maximum speed for energy transportation, is limited for each pulse of Planck time, to one leap of Planck sized local space unit, and from this limit, the speed of light emerges. So by quantizing space time and adding the non-local grid dimension we get a holistic image that can explain the Bekenstein Hawking black hole information formula, the non-locality of quantum entanglement (“spooky action at a distance “ – Albert Einstein), the speed of light limitations, definition of time and gravity.
  • 3. Figure 2: The grid dimension (illustrated as a black grid) entangles the information concealed within a sphere, with the quantum fluctuations of virtual particles on any surrounding surface of the sphere (illustrated as the blue and red dots). The white rectangles on the sphere represent the quantized units of our standard space-time. The rectangles with the dots are the occupied space units. The empty rectangles without the dots are the non-occupied space units. Like in the case of electrons in an atom which tend to fill their energy level bottom up, gravity curves space time connecting together mass A and mass B. When mass A and B connect they increase the amount of information which is spread on any joint surrounding surface of their sphere in the form of quantum fluctuations. As the information within the sphere increases, the number of quantized space units on the surface of the sphere which are not occupied with information decreases. This decrease is equivalent to a decrease in the degrees of freedom for rearranging the information during the quantum fluctuations. The quantum fluctuations on the surface of the sphere slow down due to the longer time needed to re arrange the fluctuations without losing the information concealed within the sphere. It is as if the quantum fluctuations need to rearrange a “puzzle” every time it fluctuates. As the “puzzle” becomes more complicated the longer it takes to fluctuate and coordinate all the pieces of the puzzle together without losing information. This slowdown in the quantum fluctuations is the gravitational time dilation. The gravitational time dilation curve space-time as described by Einstein’s field equations. Based on Heisenberg uncertainty principle (∆𝐸 ∗ ∆𝑡 ≥ ℎ), as the time between fluctuations (∆𝑡) increases , the energy of the quantum fluctuations (∆𝐸) decreases. Gravity tends to slow time and decrease the energy of the quantum fluctuations and it emerges from the quantized local space divided by the non-local grid dimension which are the Yin and Yang of space-time. REFERENCES: [1] https://journals.aps.org/prd/abstract/10.1103/PhysRevD.7.2333 [2] https://arxiv.org/abs/hep-th/9409089 [3] https://en.wikipedia.org/wiki/Quantum_fluctuation [4] https://journals.aps.org/pr/abstract/10.1103/PhysRev.73.360 [5] https://en.wikipedia.org/wiki/Uncertainty_principle