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Atma Namaste�and Welcome

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The QPPS Team and those joining the Zoom meeting today Sunday February 6, 2022 agree to respect the copyright of material and to not engage in digital recording at this time. �Please understand that as we move forward contents may be made available to use in the MCKS courses and classes you facilitate.

Thank you for joining today.

© Zora Rebecca Salichova 2022

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Basic Quantum Physics for Arhatic Yogis

Mini presentation / Workshop

Quantum Physics Prana Studies QPPS

Zora Salichova, Ph.D.

Quantum Physics and Science Education

February 6, 2022

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What MCKS said about Science

  • “An intelligent person is not closed minded . . .
  • An intelligent person is not gullible . . .
  • He does not accept things blindly . . .
  • He studies and digests them thoroughly . . .
  • He tests these new ideas and developments through experiments . . .
  • An intelligent person studies these ideas with a clear objective mind.” –MCKS , Introduction Miracles Through Pranic Healing Practical Manual on Energy Healing

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What MCKS said about Science

  • “MCKS tried to reduce the gap between science and spirituality by using experimental processes that were essentially scientific in nature.” –World Pranic Healing Foundation

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TOPICS

Objective Reality

The Bohr Model of the Atom

The Electromagnetic Spectrum

Seeing Paint and Light Colors

The Doppler Effect

Quantum Jumping

Water Hose Model of Electricity

Quantum Model of Electricity

Resonance

The Local Realistic Theories

The Double Slit Experiment

Heisenberg Uncertainty

Schrodinger’s Wave Equation

Einstein, Podolsky, Rosen

John Stewart Bell

Bell’s Thought Experiment

After Bell

Realism

Four Principles of Quantum Physics

Non-Locality

Non-Separability

Entanglement

Superluminal Speed

21st Century Experiments

Quantum Teleportation and Engines

Objectives

Goals

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The Objective Reality�how things really are at the macro level

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The Objective Reality�how things really are at the macro level

  • The objective reality is the reality applied that when jumping off of a 14 story roof you splat.

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The Objective Reality�how things really are at the macro level

  • The objective reality is the reality applied that when jumping off of a 14 story roof you splat.
    • Where l, w, h is the framework and time is the construct within the frame work, examples: Newtonian Mechanics,

Laws of Physics, Local Realistic Theories

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The Objective Reality�how things really are at the macro level

  • The objective reality is the reality applied that when jumping off of a 14 story roof you splat.
    • Where l, w, h is the framework and time is the construct within the frame work, examples: Newtonian Mechanics,

Laws of Physics, Local Realistic Theories

  • The subjective reality, just as much real inside your mind, convinces you that you can fly off that roof.

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The Objective Reality�how things really are at the macro level

  • The objective reality is the reality applied that when jumping off of a 14 story roof you splat.
    • Where l, w, h is the framework and time is the construct within the frame work, examples: Newtonian Mechanics,

Laws of Physics

The subjective reality; just as much real inside your mind, convinces you that you can fly off

that roof.

- The Objective Reality rules still apply

in the macro world whether contrived

subjectively or measured objectively.

-Physical matter is only part of the Objective Reality.

-Example: Subjective causal thoughts incite argument over 9 and 6

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3 Principles of the Objective Reality

Common Sense Intuitive Ideas

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3 Principles of the Objective Reality

Common Sense Intuitive Ideas

1. Rational Thought

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3 Principles of the Objective Reality

Common Sense Intuitive Ideas

1. Rational Thought

Logic

Cause and Effect

Mathematics

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3 Principles of the Objective Reality

Common Sense Intuitive Ideas

1. Rational Thought

Logic

Cause and Effect

Mathematics

2. Light Speed Limit

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3 Principles of the Objective Reality

Common Sense Intuitive Ideas

1. Rational Thought

Logic

Cause and Effect

Mathematics

2. Light Speed Limit

Space and Time

Distance

Rate d/t

No > c ≈ 3.0 X10⁸m/s

(E = mc²)

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3 Principles of the Objective Reality

Common Sense Intuitive Ideas

1. Rational Thought

Logic

Cause and Effect

Mathematics

2. Light Speed Limit

Space and Time

Distance

Rate d/t

No > c ≈ 3.0 X10⁸m/s

(E = mc²)

Locality=Local Causality

Speed of Light

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3 Principles of the Objective Reality

Common Sense Intuitive Ideas

1. Rational Thought

Logic

Cause and Effect

Mathematics

2. Light Speed Limit

Space and Time

Distance

Rate d/t

No > c ≈ 3.0 X10⁸m/s

Locality=Local Causality

Speed of Light

3. Inference

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3 Principles of the Objective Reality

Common Sense Intuitive Ideas

1. Rational Thought

Logic

Cause and Effect

Mathematics

2. Light Speed Limit

Space and Time

Distance

Rate d/t

Locality=Local Causality

No > c ≈ 3.0 X10⁸m/s

3. Inference

Sun rises

Bertlmann’s Sock

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The Bohr Model of the Atom�-not really how atoms are, just a model; that works btw-

Carbon and Boron

S and P Orbitals

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The Bohr Model of the Atom

Carbon and Boron

S and P Orbitals

Carbon

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The Bohr Model of the Atom

Carbon and Boron

S and P Orbitals

Carbon

Boron

-examples of the atomic model

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The Bohr Model of the Atom

Carbon and Boron

S and P Orbitals

Probability of finding an electron in that space

First 2 orbitals

Carbon

Boron

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The Bohr Model of the Atom

Carbon and Boron

S and P Orbitals

Probability of finding an electron in that space

First 2 orbitals

8 electrons = 8 protons

= oxygen

Carbon

Boron

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The Electromagnetic Spectrum

  • em spectrum

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The Electromagnetic Field

The field is also spiraling as it moves.

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The Electromagnetic Field

The field is also spiraling as it moves.

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Seeing Light Color and Object Color

Light Color

  • Like a rainbow or
  • Prana or Aura

Object color

  • Like a red T-Shirt or
  • Apple or Red Paint

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The Doppler Effect�or why we know the universe is expanding – a red shift

Car is continuously honking horn.

Observer at: red arrow hears low tones green arrow hears true tone

purple arrow hears high tones

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Quantum Jumping or Leap

  • Causal Energy can be the Energy of Photon (s) or Light or Prana

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Quantum Jumping or Leap

  • Causal Energy can be the Energy of Photon (s) or Light or Prana.

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Quantum Jumping or Leap

  • Causal Energy can be the energy of Photon (s) or Light or Prana.

  • When the atom absorbs Photons, Light, or Prana, it is in an excited state; more energized

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Water Hose Model to Explain Electricity Flow –�Incorrect

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Water Hose Model to Explain Electricity Flow –�Incorrect

The idea:

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Water Hose Model to Explain Electricity Flow –�Incorrect

Resistance Control

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Water Hose Model to Explain Electricity Flow –�Incorrect

Resistance Control

Voltage V

Current Amps

Resistance Ω

The idea:

Add resistance:

1/Ω = hose d

As long as the spicket is turned on the water keeps coming from the source (well, city, etc)

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����Quantum Jumping �Model of �Electricity Flow�

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����Quantum Jumping �Model of �Electricity Flow�

*

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����Quantum Jumping �Model of �Electricity Flow�

Electric current is the result of a chain reaction of energy jumping from one electron to the next rather than a constant flow.

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����Quantum Jumping �Model of �Electricity Flow�

Electric current is the result of a chain reaction of energy jumping from one electron to the next rather than a constant flow.

So much electron energy jumps out of a copper wire because the wire is thick or has many twisted wires. The electron’s energy doesn’t jump single file.

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����Quantum Jumping �Model of �Electricity Flow�

Electric current is the result of a chain reaction of energy jumping from one electron to the next rather than a constant flow.

So much electron energy jumps out of a copper wire because the wire is thick or has many twisted wires. The electron’s energy doesn’t jump single file.

Showing “electronic” energy jumping through a line of atoms in a wire.

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����Quantum Jumping �Model of �Electricity Flow�

Electric current is the result of a chain reaction of energy jumping from one electron to the next rather than a constant flow.

So many electrons jump out of a copper wire because the wire is thick or has many twisted wires. The electrons don’t jump single file.

Showing “electronic” energy jumping through a line of atoms in a wire.

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����Quantum Jumping �Model of �Electricity Flow �

The Flash Light Experiment

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����Quantum Jumping �Model of �Electricity Flow -�Flashlight Test

Turn a Flashlight on in a dark closet.

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����Quantum Jumping �Model of �Electricity Flow -�Flashlight Test

Turn a Flashlight on

in a dark closet.

Leave the flash light on inside the closet.

Shut the door and walk away.

Come back in 10 minutes.

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����Quantum Jumping �Model of �Electricity Flow -�Flashlight Test

Turn a Flashlight on in a dark closet.

Leave the flash light on inside the closet.

Shut the door and walk away.

Come back in 10 minutes.

Assumption:

If the electricity was flowing out of the end of the flash light wouldn’t the closet be full of light?

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����Quantum Jumping �Model of �Electricity Flow -�Flashlight Test

Turn a Flashlight on in a dark closet.

Leave the flash light on inside the closet.

Shut the door and walk away.

Come back in 10 minutes.

Assumption:

If the electricity was flowing out of the end of the flash light wouldn’t the closet be full of light?

Result:

The only lit up area inside the closet is where the electrons can jump to the next particle in the air, add energy, and excite the air atoms to light up.

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����Quantum Jumping �Model of �Electricity Flow -�Flashlight Test

Turn a Flashlight on in a dark closet.

Leave the flash light on inside the closet.

Shut the door and walk away.

Come back in 10 minutes.

Assumption:

If the electricity was flowing out of the end of the flash light wouldn’t the closet be full of light?

Result:

The only lit up area inside the closet is where the electrons can jump to the next particle in the air, add energy, and excite the air atoms to light up.

Conclusion:

Light has the ability to overcome darkness with a little push and must be adjacent to the darkness.

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�����Resonance�Why Group Meditation and Group Healing is Better

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�����Resonance�Why Group Meditation and Group Healing is Better

Amplitude is the height of the wave from the line to the top center crest.

Wavelength is measured from crest to crest.

Frequency is the number of crests in a given time.

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�����Resonance�Why Group Meditation and Group Healing is Better

Amplitude is the height of the wave from the center to the top.

Wavelength is measured from crest to crest.

Frequency is the number of crests in a given time; both the waves in the pic are at the same frequency.

*******************************

Tuning forks showing exactly what resonance is. *******************************

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�����Resonance�Why Group Meditation and Group Healing is Better

Resonant Frequency

System Resonance

Amplitude is the height of the wave from the center to the top.

Wavelength is measured from crest to crest.

Frequency is the number of crests in a given time; both the waves in the pic are at the same frequency.

*******************************

Tuning forks showing exactly what resonance is. *******************************

When a system of the same frequencies are measured an increase in amplitude is found compared to the amplitude of single wave measurement in that system.

*******************************

-

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�����Resonance�Why Group Meditation and Group Healing is Better

Amplitude is the height of the wave from the center to the top.

Wavelength is measured from crest to crest.

Frequency is the number of crests in a given time; both the waves in the pic are at the same frequency.

*******************************

Tuning forks showing exactly what resonance is. *******************************

When a system of the same frequencies are measured an increase in amplitude is found compared to the amplitude of single wave measurement in that system.

*******************************

Showing 2 waves at the same frequencies interfering constructively to increase amplitude. For sound that means louder.

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Pop Quiz: to refocus and create mind set.

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Pop Quiz: to refocus and create mind set.

Paraphrased from “At the Feet of the Master”

Jiddu Krishnamurti Ch 1

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Pop Quiz: to regroup and create mind set.

Paraphrased from “At the Feet of the Master”

Jiddu Krishnamurti Ch 1

Three questions for you;

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Pop Quiz: to regroup and create mind set.

Paraphrased from “At the Feet of the Master”

Jiddu Krishnamurti Ch 1

Three questions for you;

  1. Where do you find things that are worth gaining?

______________________________________________

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Pop Quiz: to regroup and create mind set.

Paraphrased from “At the Feet of the Master”

Jiddu Krishnamurti Ch 1

Three questions for you;

  1. Where do you find things that are worth gaining?

-on the Path _______________________________________________

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test

Pop Quiz: to regroup and create mind set.

Paraphrased from “At the Feet of the Master”

Jiddu Krishnamurti Ch 1

Three questions for you;

  1. Where do you find things that are worth gaining?

-on the Path ___________________________________________________________

  1. What is outside the Path?

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Pop Quiz: to regroup and create mind set.

Paraphrased from “At the Feet of the Master”

Jiddu Krishnamurti Ch 1

Three questions for you;

  1. Where do you find things that are worth gaining?

-on the Path ___________________________________________________________

  1. What is outside the Path?

-all things unreal and unlasting ___________________________________________________________

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Pop Quiz: to regroup and create mind set.

Paraphrased from “At the Feet of the Master”

Jiddu Krishnamurti Ch 1

Three questions for you;

  1. Where do you find things that are worth gaining?

-on the Path ___________________________________________________________

  1. What is outside the Path?

-all things unreal and unlasting ___________________________________________________________

3. Where does the Path lead?

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Pop Quiz: to regroup and create mind set.

Paraphrased from “At the Feet of the Master”

Jiddu Krishnamurti Ch 1

Three questions for you;

  1. Where do you find things that are worth gaining?

-on the Path ___________________________________________________________

  1. What is outside the Path?

-all things unreal and unlasting ___________________________________________________________

3. Where does the Path lead?

-to God; to what is real and everlasting

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

A Deeper look at Reality

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

The Local Realistic Theories describe the knowable realms of the objective reality; here are four categories:

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

The Local Realistic Theories describe the knowable realms of the objective reality; here are four categories:

  • Ontology

  • Epistemology

  • Axiology

  • Methodology

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

The Local Realistic Theories describe the knowable realms of the objective reality; here are four categories:

  • Ontology – the nature of reality and what really exists (is the subjective reality real? are dreams real?)

  • Epistemology

  • Axiology

  • Methodology

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

The Local Realistic Theories describe the knowable realms of the objective reality; here are four categories:

  • Ontology – the nature of reality and what really exists (is the subjective reality real? are dreams real?)

  • Epistemology - the relationship between the knower and what is known (will to know, layers of truth about anything?)

  • Axiology

  • Methodology

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

The Local Realistic Theories describe the knowable realms of the objective reality; here in four categories:

  • Ontology – the nature of reality and what really exists (is the subjective reality real? are dreams real?)

  • Epistemology - the relationship between the knower and what is known (will to know, layers of truth about anything?)

  • Axiology – what we value (subjective, cultural, karmic?)

  • Methodology

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The Local Realistic Theories �and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

The Local Realistic Theories describe the knowable realms of the objective reality; here in four categories:

  • Ontology – the nature of reality and what really exists (is the subjective reality real? are dreams real?)

  • Epistemology - the relationship between the knower and what is known (will to know, layers of truth about anything?)

  • Axiology – what we value (subjective, cultural, karmic?)

  • Methodology – strategy and justifications in constructing a specific type of knowledge (the audience, the share holders, what are their interests and how deep into the Rabbit Hole can you go?)

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The Local Realistic Theories�and Why Quantum Mechanics Fails Every Test of Newtonian Mechanics

Ontology Epistemology

Absolute: Reality Knowledge

Cosmic supernatural Received via

Revelation or

Mystical

Earth Inherent in World Discovered

Human Experience Constructed

Axiology Methodology

Good Interface

God Religion, Idealism,

Transcendentalism

Law of Nature Rational, Logical,

Empirical, Material

Preferred Pragmatism,

Consequence Experimentation,

Phenomenology

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The Double Slit Experiment

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The Double Slit Experiment

-A demonstration that light and matter can display characteristics of both classically defined waves and particles-

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The Double Slit Experiment

-A demonstration that light and matter can display characteristics of both classically defined waves and particles-

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The Double Slit Experiment

-

-A demonstration that light and matter can display characteristics of both classically defined waves and particles-

The original experiment was performed in 1801 by Thomas Young.

Nope Yep

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The Double Slit Experiment

-

-A demonstration that light and matter can display characteristics of both classically defined waves and particles-

The original experiment was performed in 1801 by Thomas Young.

Nope Yep

In 1927 it was demonstrated that electrons show the same behavior, and later atoms and molecules. This means that matter can have properties like light; dispersion, reflection, refraction, inference, and resonance.

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The Double Slit Experiment

-

-A demonstration that light and matter can display characteristics of both classically defined waves and particles-

The original experiment was performed in 1801 by Thomas Young.

Nope Yep

In 1927 it was demonstrated that electrons show the same behavior, and later atoms and molecules.

In 2013 experiments demonstrated double-slit interference using single electrons. Finally a single electron is shown to behave as a particle when it needs to be a particle with spin and axis angles and a wave when confronted with velocity and momentum toward two slits. Instead of splatting, one electron travels through two slits.

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The Double Slit Experiment

Another View

Top pic – normal

Middle pic – when one particle or a macro object like a fullerene molecule goes through 2 slits, it behaves as a wave

Bottom pic – a sensor is placed at the slits to observe which hole the object actually goes through; the interaction of observation collapses the wave function and the object behaves as a particle

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Heisenberg Uncertainty

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Heisenberg Uncertainty

The more precisely the position of a particle is determined, the less precisely its momentum (v x m) can be predicted.

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Heisenberg Uncertainty

The more precisely the position of a particle is determined, the less precisely its momentum (v x m) can be predicted.

The precise values of multiple physical descriptors can not be know at the same time.

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Heisenberg Uncertainty

The more precisely the position of a particle is determined, the less precisely its momentum (v x m) can be predicted.

The precise values of multiple physical descriptors can not be know at the same time.

Measurement does not mean a process in which an observer takes the measurement, but rather any interaction between classical and quantum objects regardless of an observer.

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Heisenberg Uncertainty�The Experiment

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Heisenberg Uncertainty The Experiment

Hole

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Heisenberg Uncertainty� The Experiment

Large Hole

Medium Hole

Small Hole

Hole

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Heisenberg Uncertainty� The Experiment

Large Hole

Medium Hole

Small Hole

Hole

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�Heisenberg Uncertainty� The Experiment �

Large Hole

Medium Hole

Small Hole

Hole

Small Scatter Plot

Medium Scatter Plot

Large Scatter Plot

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�Heisenberg Uncertainty The Experiment �

Large Hole

Medium Hole

Small Hole

Hole

Small Scatter Plot

Medium Scatter Plot

Large Scatter Plot

We expect to see a scatter plot being the same size as the hole; small hole = small scatter plot.

But the results show; the smaller the hole, the larger the scatter plot.

This means the more precisely we know the location (the smallest hole) the less precisely (larger plot) we know the momentum (mass, distance, time). The momentum describes where the photon will land.

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Quantum Uncertainty Principle

Another view

-as the location of the photon(s) get more precise, the momentum gets less precise

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Schrodinger’s Wave Equation

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Schrodinger’s Wave Equation

All conventional physical process is governed by the Schrodinger Wave Function.

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Schrodinger’s Wave Equation

Erwin Rudolf Josef Alexander Schrodinger 1887 - 1961

Austrian Irish Theoretical Physicist who contributed to the Wave Theory of Matter

All conventional physical process is governed by the Schrodinger Wave Function.

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Schrodinger’s Wave Equation

Erwin Rudolf Josef Alexander Schrodinger 1887 - 1961

Austrian Irish Theoretical Physicist who contributed to the Wave Theory of Matter

He wrote the Schrodinger Wave Function Equation in 1925

at University of Zurich after serving in WW I

All conventional physical process is governed by the Schrodinger Wave Function.

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Schrodinger’s Wave Equation

Erwin Rudolf Josef Alexander Schrodinger 1887 - 1961

Austrian Irish Theoretical Physicist who contributed to the Wave Theory of Matter

He wrote the Schrodinger Wave Function Equation in 1925

at University of Zurich after serving in WW I

Then took an appointment at University of Berlin where he worked with Albert Einstein and others

All conventional physical process is governed by the Schrodinger Wave Function.

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Schrodinger’s Wave Equation

Erwin Rudolf Josef Alexander Schrodinger 1887 - 1961

Austrian Irish Theoretical Physicist who contributed to the Wave Theory of Matter

He wrote the Schrodinger Wave Function Equation in 1925

at University of Zurich after serving in WW I

Then took an appointment at University of Berlin where he worked with Albert Einstein and others

As the Nazi’s rose to power in Europe, he left Germany and joined the faculty at Oxford University ending up as Head of the School for Theoretical Physics at the Institute for Advanced Studies in Dublin for 15 yrs

All conventional physical process is governed by the Schrodinger Wave Function.

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Schrodinger’s Wave Equation

Erwin Rudolf Josef Alexander Schrodinger 1887 - 1961

Austrian Irish Theoretical Physicist who contributed to the Wave Theory of Matter

He wrote the Schrodinger Wave Function Equation in 1925

at University of Zurich after serving in WW I

Then took an appointment at University of Berlin where he worked with Albert Einstein and others

As the Nazi’s rose to power in Europe, he left Germany and joined the faculty at Oxford University ending up as Head of the School for Theoretical Physics at the Institute for Advanced Studies in Dublin for 15 yrs

His hobby was Philosophy and Metaphysics as evidenced by his books:

What is Life? (genetics), Nature and the Greeks (scientific view), and

My View of the World inspired by the Vedanta (Uttara Mimmamsa or End of the Vedas) specifically addressing knowledge and liberation.

All conventional physical process is governed by the Schrodinger Wave Function.

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Schrodinger’s Wave Equation

Erwin Rudolf Josef Alexander Schrodinger 1887 - 1961

Austrian Irish Theoretical Physicist who contributed to the Wave Theory of Matter

He wrote the Schrodinger Wave Function Equation in 1925

at University of Zurich after serving in WW I

Then took an appointment at University of Berlin where he worked with Albert Einstein and others

As the Nazi’s rose to power in Europe, he left Germany and joined the faculty at Oxford University ending up as Head of the School for Theoretical Physics at the Institute for Advanced Studies in Dublin for 15 yrs

His hobby was Philosophy and Metaphysics as evidenced by his books:

What is Life? (genetics), Nature and the Greeks (scientific view), and

My View of the World inspired by the Vedanta (Uttara Mimmamsa or End of the Vedas) specifically addressing knowledge and liberation.

Schrodinger was known for his extraordinary intellect pursuing science as a unique tool to unravel mysteries of human existence

All conventional physical process is governed by the Schrodinger Wave Function.

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Schrodinger’s Wave Equation

All conventional physical process is governed by the Schrodinger Wave Function.

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Schrodinger’s Wave Equation

All conventional physical process is governed by the Schrodinger Wave Function.

The Schrodinger equation plays the role of Newton's laws and conservation of energy; it predicts analytically and precisely the probability of events actually occurring or outcomes.

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Schrodinger’s Wave Equation

All conventional physical process is governed by the Schrodinger Wave Function.

The Schrodinger equation plays the role of Newton's laws and conservation of energy in classical mechanics; it predicts analytically and precisely the probability of events actually occurring or outcome.s

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Schrodinger’s Wave Equation

Wave collapse postulate

All conventional physical process is governed by the Schrodinger Wave Function.

The Schrodinger equation plays the role of Newton's laws and conservation of energy in classical mechanics; it predicts analytically and precisely the probability of events or outcome.

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Schrodinger’s Wave Equation

To increase the probability of the wave functions actualizing a Pranic Healing; best to follow the Protocols, Character Building, Study, Meditation, Purification, and Devotion to the Teacher and Teachings;

Thus restricting the zillion possible wave functions to those of success regarding the areas of Pranic healing that are subject to Quantum and Newtonian Laws of Physics.

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Einstein, Podolsky, Rosen

“Spooky Action At A Distance”

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Einstein, Podolsky, Rosen

In 1935 EPR first revealed a mathematical observation of

spooky action at a distance;

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Einstein, Podolsky, Rosen

In 1935 EPR first revealed a mathematical observation of

spooky action at a distance;

an unexplainable way that particles communicated with each other instantaneously across distance to effect their measured properties.

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Einstein, Podolsky, Rosen

In 1935 EPR first revealed a mathematical observation of

spooky action at a distance;

an unexplainable way that particles communicated with each other instantaneously across distance to effect their measured properties.

These actions could not be present if the local realistic theories applied. Something was wrong with quantum mechanics.

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Einstein, Podolsky, Rosen

In 1935 EPR first revealed a mathematical observation of

spooky action at a distance;

an unexplainable way that particles communicated with each other instantaneously across distance to effect their measured properties.

These actions could not be present if the local realistic theories applied. Something was wrong with quantum mechanics.

A series of thought experiments and calculations followed arguing:

  1. That the theories of quantum mechanics were incomplete and included hidden variables yet undiscovered or
  2. That Einstein was wrong and quantum physics violated realism.

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John Stewart Bell

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John Stewart Bell

He and his wife were employed at the Swiss Particle Accelerator Lab CERN as a particle physicists from 1960. They were both known as long time vegetarians since teen years.

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John Stewart Bell

He and his wife were employed at the Swiss Particle Accelerator Lab CERN as a particle physicists from 1960. They were both known as long time vegetarians since teen years.

Bell was born in Belfast Ireland in 1928 and graduated from Queen’s University in Belfast in Mathematical Experimental Physics in 1948 and then with his Ph.D. in 1956 from University of Birmingham in Nuclear Physics and Quantum Field Theory. He died in 1990 of a brain aneurism.

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John Stewart Bell

He and his wife were employed at the Swiss Particle Accelerator Lab CERN as a particle physicists from 1960. They were both known as long time vegetarians since teen years.

Bell was born in Belfast Ireland in 1928 and graduated from Queen’s University in Belfast in Mathematical Experimental Physics in 1948 and then with his Ph.D. in 1956 from University of Birmingham in Nuclear Physics and Quantum Field Theory. He died in 1990 of a brain aneurism.

His nighttime hobby was quantum mechanics.

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John Stewart Bell

He and his wife were employed at the Swiss Particle Accelerator Lab CERN as a particle physicists from 1960. They were both known as long time vegetarians since teen years.

Bell was born in Belfast Ireland in 1928 and graduated from Queen’s University in Belfast in Mathematical Experimental Physics in 1948 and then with his Ph.D. in 1956 from University of Birmingham in Nuclear Physics and Quantum Field Theory. He died in 1990 of a brain aneurism.

His nighttime hobby was quantum mechanics.

In 1964 Bell took 1 year off from CERN and visited Stanford where he wrote his 1st paper attempting to support EPR but ended up proving Einstein wrong on superluminal speed, locality, and realism.

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John Stewart Bell

He and his wife were employed at the Swiss Particle Accelerator Lab CERN as a particle physicists from 1960. They were both known as long time vegetarians since teen years.

Bell was born in Belfast Ireland in 1928 and graduated from Queen’s University in Belfast in Mathematical Experimental Physics 1948 and then with his Ph.D. in 1956 from University of Birmingham in Nuclear Physics and Quantum Field Theory. He died in 1990 of a brain aneurism.

His nighttime hobby was quantum mechanics.

In 1964 Bell took 1 year off from CERN and visited Stanford where he wrote his 1st paper attempting to support EPR but ended up proving Einstein wrong on superluminal speed and realism.

The 1st paper was a theorem in the form of a thought experiment using simple inequalities to prove that measurements in Quantum Mechanics were incompatible with Classical Physics.

ǀC(a,b) – C(a,c)ǀ ≤ 1+ C(b,c) The original Bell Inequality

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Bell Thought Experiment 1964 CERN �

1. Influence of Knowing aka

Quantum Entanglement

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Bell Thought Experiment 1964 CERN �

2. -particles are simultaneously shot to yellow screens-

1. Influence of Knowing or

Quantum Entanglement

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Bell Thought Experiment 1964 CERN �

ǀC(a,b) – C(a,c)ǀ ≤ 1+ C(b,c)

2. -particles are simultaneously shot to screens-

1. Influence of Knowing or

Quantum Entanglement

3. -particles are simultaneously

measured for spin and angle

on both screens

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Conceptual Difficulties with the Local Realistic Theories

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Conceptual Difficulties with the Local Realistic Theories

Bell's theorem shows that "local realism" is incompatible with quantum predictions, so that one must choose between abandoning locality or abandoning realism or both.

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Conceptual Difficulties with the Local Realistic Theories

Bell's theorem shows that "local realism" is incompatible with quantum predictions, so that one must choose between abandoning locality or abandoning realism or both.

But those who talk about "local realism" rarely explain what they mean by "realism".

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Conceptual Difficulties with the Local Realistic Theories

Bell's theorem shows that "local realism" is incompatible with quantum predictions, so that one must choose between abandoning locality or abandoning realism or both.

But those who talk about "local realism" rarely explain what they mean by "realism".

The experiment conclusively establishes the relativistic non-locality of the actual world.

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Conceptual Difficulties with the Local Realistic Theories

Bell's theorem shows that "local realism" is incompatible with quantum predictions, so that one must choose between abandoning locality or abandoning realism or both.

But those who talk about "local realism" rarely explain what they mean by "realism".

The experiment conclusively establishes the relativistic non-locality of the actual world.

We have scientific evidence that certain aspects of the microscopic world transcend human understanding or, alternatively, that any discussion concerning elements of physical reality is meaningless or beyond the scope of science.

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Conceptual Difficulties with the Local Realistic Theories

Bell's theorem shows that "local realism" is incompatible with quantum predictions, so that one must choose between abandoning locality or abandoning realism or both.

But those who talk about "local realism" rarely explain what they mean by "realism".

The experiment conclusively establishes the relativistic non-locality of the actual world.

We have scientific evidence that certain aspects of the microscopic world transcend human understanding or, alternatively, that any discussion concerning elements of physical reality is meaningless or beyond the scope of science.

Henry Stapp of the Lawernce Berkeley National Laboratory called “Bell’s work on quantum theory the most profound discovery of science”.

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After Bell

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After Bell

Actual experiments were performed to test the validity of Bell’s Inequality statements by John Clauser called The Bell Experiments from 1969-1976 at Lawrence Berkeley Laboratory and in 1982 Alain Aspect experimented at the CERN particle accelerator with resultant proof of high statistical significance.

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After Bell

Actual experiments were performed to test the validity of Bell’s Inequality statements by John Clauser called The Bell Experiments from 1969-1976 at Lawrence Berkeley Laboratory and in 1982 Alain Aspect experimented at the CERN particle accelerator with resultant proof of high statistical significance.

It wasn’t until 2015 that Bell’s Theorem failed all tests of all known variables proving that Local Realism and its components of the Objective Reality do not hold up to quantum particle tests.

We say reality and Quantum Physics are incompatible.

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After Bell

Actual experiments were performed to test the validity of Bell’s Inequality statements by John Clauser called The Bell Experiments from 1969-1976 at Lawrence Berkeley Laboratory and in 1982 Alain Aspect experimented at the CERN particle accelerator with resultant proof of high statistical significance.

It wasn’t until 2015 that Bell’s Theorem failed all tests of all known variables proving that Local Realism and its components of the Objective Reality do not hold up to quantum particle tests.

We say reality and Quantum Physics are incompatible.

The failure of Bell’s Theorem proved that Einstein was wrong about the speed of light limit and locality. Einstein’s belief that quantum theory was incomplete was proven to be incorrect.

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After Bell

Actual experiments were performed to test the validity of Bell’s Inequality statements by John Clauser called The Bell Experiments from 1969-1976 at Lawrence Berkeley Laboratory and in 1982 Alain Aspect experimented at the CERN particle accelerator with resultant proof of high statistical significance.

It wasn’t until 2015 that Bell’s Theorem failed all tests of all known variables proving that Local Realism and its components of the Objective Reality do not hold up to quantum particle tests.

We say reality and Quantum Physics are incompatible.

The failure of Bell’s Theorem proved that Einstein was wrong about the speed of light limit and locality. Einstein’s belief that quantum theory was incomplete was proven to be incorrect. Einstein won the Noble Prize in 1921 for his services to theoretical physics and especially the photoelectric effect. Einstein’s Energy Mass Equivalence equation along with the General and Special Theories of Relativity opened the door for quantum mechanics. And it is upon relativity and quantum mechanics that modern physics sits.

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Realism or Non-Realism

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Realism or Non-Realism

  • We know that parts of the universe are actually potentially connected in an intimate and immediate way due to non-locality, entanglement, and superluminal speeds. Our new description of Reality.

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Realism or Non-Realism

  • We know that parts of the universe are actually potentially connected in an intimate and immediate way due to non-locality, entanglement, and superluminal speeds. Our new description of Reality.

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Realism or Non-Realism

  • We know that parts of the universe are actually potentially connected in an intimate and immediate way due to non-locality, entanglement, and superluminal speeds. Our new description of Reality.

  • To Einstein, Schrodinger’s Wave Equation collapse postulate was a stronger retreat from realism than non-locality.

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Realism or Non-Realism

  • We know that parts of the universe are actually potentially connected in an intimate and immediate way due to non-locality, entanglement, and superluminal speeds. Our new description of Reality.

  • To Einstein, Schrodinger’s Wave Equation collapse postulate was a stronger retreat from realism than non-locality.

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Realism or Non-Realism

  • We know that parts of the universe are actually potentially connected in an intimate and immediate way due to non-locality, entanglement, and superluminal speeds. Our new description of Reality.

  • To Einstein, Schrodinger’s Wave Function collapse postulate was a stronger retreat from realism than non-locality.
  • The Wave Function Collapse is not driven by conscious observers alone. Every interaction a quantum particle makes can collapse it.

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Realism or Non-Realism

  • We know that parts of the universe are actually potentially connected in an intimate and immediate way due to non-locality, entanglement, and superluminal speeds. Our new description of Reality.

  • To Einstein, Schrodinger’s Wave Function collapse postulate was a stronger retreat from realism than non-locality.
  • The Wave Function Collapse is not driven by conscious observers alone. Every interaction a quantum particle makes can collapse it.
  • In quantum theory, quantum particles can exist in a superposition of states at the same time and collapse down to a single state upon interaction with other particles or upon observation or measurement.

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Four Principles of Quantum Physics�-why Quantum Physics must throw out local realism as we know it and make its own new rules; the new rules are:

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Four Principles of Quantum Physics�-why Quantum Physics must throw out local realism as we know it and make its own new rules; the new rules are:

  • Non-Locality

  • Non-Separability

  • Entanglement

  • Faster than the Speed of Light

(Super Luminous)

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�Four Principles of Quantum Physics� -why Quantum Physics must throw out local realism as we know it and make its own new rules; the new rules are: ���

  • Non-Locality

Describes the apparent ability of objects to instantaneously know about each other’s state, even when separated by large distances (potentially even billions of light years), almost as if the universe at large instantaneously arranges its particles in anticipation of future events

  • Non-Separability

  • Entanglement

  • Faster then the Speed of Light

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Four Principles of Quantum Physics� -why Quantum Physics must throw out local realism as we know it and make its own new rules; the new rules are:

  • Non-Locality

Describes the apparent ability of objects to instantaneously know about each other’s state, even when separated by large distances (potentially even billions of light years), almost as if the universe at large instantaneously arranges its particles in anticipation of future events

  • Non-Separability

Instantaneous Action At Distance , everything is connected via the quantum field or the Prana Field that acts as a carrier to everything

  • Entanglement

  • Faster then the Speed of Light

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Four Principles of Quantum Physics� -why Quantum Physics must throw out local realism as we know it and make its own new rules; the new rules are:

  • Non-Locality

Describes the apparent ability of objects to instantaneously know about each other’s state, even when separated by large distances (potentially even billions of light years), almost as if the universe at large instantaneously arranges its particles in anticipation of future events

  • Non-Separability

Instantaneous Action At Distance , everything is connected via the quantum field or the Prana Field that acts as a carrier to everything

  • Entanglement Particles must share an experience, the influence of knowing, to exhibit correlations that are not explained by classical physics (local realism). Entangled particle’s mathematical sums (wavelength, frequency, spin, axis angle) cannot be written as single product terms.

All particles in the universe are not entangled.

  • Faster then the Speed of Light

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Four Principles of Quantum Physics� -why Quantum Physics must throw out local realism as we know it and make its own new rules; the new rules are:

  • Non-Locality

Describes the apparent ability of objects to instantaneously know about each other’s state, even when separated by large distances (potentially even billions of light years), almost as if the universe at large instantaneously arranges its particles in anticipation of future events

  • Non-Separability

Instantaneous Action At Distance , everything is connected via the quantum field or the Prana Field that acts as a carrier to everything

  • Entanglement Particles must share an experience, the influence of knowing, to exhibit correlations that are not explained by classical physics (local realism). Entangled particle’s mathematical sums (wavelength, frequency, spin, axis angle) cannot be written as single product terms.

All particles in the universe are not entangled.

  • Faster then the Speed of Light

For now, we know that the interaction between entangled quantum particles is faster than the speed of light. FTL Faster Than Light speed has been measured.

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Non-Locality

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Non-Locality

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.

A

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.

A

B

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.
  • No matter where we point to look for the particle, there we will find it.

A

B

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.
  • No matter where we point to look for the particle, there we will find it.

B

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.
  • No matter where we point to look for the particle, there we will find it.

A

B

  • How can this be possible?
  • In order for a particle to move from A to B, distance must be traveled in a certain time. mph miles per hour for example

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.
  • No matter where we point to look for the particle, there we will find it.

A

B

  • How can this be possible?
  • In order for a particle to move from A to B, distance must be traveled in a certain time.
  • For quantum particles the movement can be instantaneous or require no time to move.

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.
  • No matter where we point to look for the particle, there we will find it.

A

B

  • How can this be possible?
  • In order for a particle to move from A to B, distance must be traveled in a certain time.
  • For quantum particles, the movement can be instantaneous or require no time to move.
  • Instantaneous Action at a Distance. Einstein’s Spooky Action at a Distance.

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.
  • No matter where we point to look for the particle, there we will find it.

A

B

  • How can this be possible?
  • In order for a particle to move from A to B, distance must be traveled in a certain time.
  • For quantum particles, the movement can be instantaneous or require no time to move.
  • Instantaneous Action At A Distance. Einstein’s Spooky Action at a Distance.
  • The locality or location of the particle doesn’t matter. Non-Locality.

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.
  • No matter where we point to look for the particle, there we will find it.

A

B

  • How can this be possible?
  • In order for a particle to move from A to B, distance must be traveled in a certain time.
  • Right?
  • For quantum particles the movement can be instantaneous or require no time to move.
  • Instantaneous Action At A Distance. The locality or location doesn’t matter. Non-Locality.
  • But the electron is not a particle at all, it’s a puff ball of energy responding to the pointer that measures the whole of the electron wherever it points.

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Non-Locality

  • Moment in time “A” finds the particle here; where the red arrow points.
  • A split second after “A” is found, pointer “B” finds the particle at the blue arrow.
  • No matter where we point to look for the particle, there we will find it.

A

B

  • How can this be possible?
  • In order for a particle to move from A to B, distance must be traveled in a certain time.
  • Right?
  • For quantum particles the movement can be instantaneous or require no time to move.
  • Instantaneous Action At A Distance. The locality or location doesn’t matter. Non-Local.
  • But the electron is not a particle at all, it’s a puff ball of energy responding to the pointer that measures the whole of the electron wherever it points.
  • But the electron IS a particle and/or a wave that does not behave like one according to Classical Physics (Newtonian Mechanics).

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Non-Separability

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Non-Separability

  • Non-separability and nonlocality together describe the apparent ability of objects to instantaneously know about each other’s state, even when separated by large distances (billions of light years); almost as if the universe at large instantaneously arranges its particles in anticipation of future events. Does it? That would be Bell’s Superdeterminism.

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Non-Separability

  • Non-separability and nonlocality together describe the apparent ability of objects to instantaneously know about each other’s state, even when separated by large distances (billions of light years); almost as if the universe at large instantaneously arranges its particles in anticipation of future events.
  • Separability, locality, and speed of light limit have always been necessary for relativity . . .

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Non-Separability

  • Non-separability and nonlocality together describe the apparent ability of objects to instantaneously know about each other’s state, even when separated by large distances (billions of light years); almost as if the universe at large instantaneously arranges its particles in anticipation of future events.
  • Separability, locality, and speed of light limit have always been necessary for relativity . . .

  • Again; Parts of the universe are actually potentially connected in an intimate and immediate way.

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Superluminal

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Superluminal

  • Classical Mechanics - no physical effects move faster than the ​speed of light

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Superluminal

  • Classical Mechanics - no physical effects move faster than the ​speed of light
  • Bell's Theorem proved that particles connected through quantum entanglement  communicate information faster than the speed of light.

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Superluminal

  • Classical Mechanics - no physical effects move faster than the ​speed of light
  • Bell's Theorem proved that particles connected through quantum entanglement  communicate information faster than the speed of light.
  • There exists interactions between events that are too far apart in space and too close together in time for the events to be connected even by signals moving at the speed of light. 

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Superluminal

  • Classical Mechanics - no physical effects move faster than the ​speed of light
  • Bell's Theorem proved that particles connected through quantum entanglement  communicate information faster than the speed of light.
  • There exists interactions between events that are too far apart in space and too close together in time for the events to be connected even by signals moving at the speed of light. 
  • For now, we know that the interaction between entangled quantum particles is faster than the speed of light.

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Superluminal

  • Classical Mechanics - no physical effects move faster than the ​speed of light
  • Bell's Theorem proved that particles connected through quantum entanglement  communicate information faster than the speed of light.
  • There exists interactions between events that are too far apart in space and too close together in time for the events to be connected even by signals moving at the speed of light. 
  • For now, we know that the interaction between entangled quantum particles is faster than the speed of light.
  • We know Prana changes state FTL speed.

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Superluminal

  • Classical Mechanics - no physical effects move faster than the ​speed of light
  • Bell's Theorem proved that particles connected through quantum entanglement  communicate information faster than the speed of light.
  • There exists interactions between events that are too far apart in space and too close together in time for the events to be connected even by signals moving at the speed of light. 
  • For now, we know that the interaction between entangled quantum particles is faster than the speed of light.
  • We know Prana materializes FTL speed.
  • Juan Yen a Chinese physicist has measured the speed at the minimum of 3 trillion meters per second, a minimum limited by equipment.

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Superluminal

  • Classical Mechanics - no physical effects move faster than the ​speed of light
  • Bell's Theorem proved that particles connected through quantum entanglement  communicate information faster than the speed of light.
  • There exists interactions between events that are too far apart in space and too close together in time for the events to be connected even by signals moving at the speed of light. 
  • For now, we know that the interaction between entangled quantum particles is faster than the speed of light.
  • We know Prana materializes FTL speed.
  • Juan Yen a Chinese physicist has measured the speed at the minimum of 3 trillion meters per second, a minimum limited by equipment.
  • These first observations of superluminal speed in our time are a significant event for all scientists everywhere.

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Superluminal

  • Classical Mechanics - no physical effects move faster than the ​speed of light
  • Bell's Theorem proved that particles connected through quantum entanglement  communicate information faster than the speed of light.
  • There exists interactions between events that are too far apart in space and too close together in time for the events to be connected even by signals moving at the speed of light. 
  • For now, we know that the interaction between entangled quantum particles is faster than the speed of light.
  • We know Prana materializes FTL speed.
  • Juan Yen a Chinese physicist has measured the speed at the minimum of 3 trillion meters per second, a minimum limited by equipment.
  • These first observations of superluminal speed in our time are a significant event for all scientists everywhere.
  • We know that quantum entanglement can be used to realize quantum teleportation superluminally.

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Entanglement

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Entanglement

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Entanglement

Particles that interact with

each other become correlated,

or dependent on each other’s

states and properties

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Entanglement

Particles that interact with

each other become correlated,

or dependent on each other’s

states and properties

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Entanglement

Particles that interact with

each other become correlated,

or dependent on each other’s

states and properties

Entangled system’s correlations

cannot be explained by

classical physics.

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Entanglement

Not Just Particles; Small Macro Objects As Well

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Entanglement

Not Just Particles; Small Macro Objects As Well

Quantum entanglement has been demonstrated experimentally with photons, neutrinos, electrons, molecules as large as buckyballs, and even small diamonds.

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Entanglement

Not Just Particles; Small Macro Objects As Well

Quantum entanglement has been demonstrated experimentally with photons, neutrinos, electrons, molecules as large as buckyballs, and even small diamonds.

A Buckyball is a

Fullurene of C60

with a hollow center.

Ex. Shungite

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Entanglement

Not Just Particles; Small Macro Objects As Well

Quantum entanglement has been demonstrated experimentally with photons, neutrinos, electrons, molecules as large as buckyballs, and even small diamonds.

A Buckyball is a Here is a diamond

Fullurene of C60 crystal C8, a square

with a hollow center. within a square

Ex. Shungite within a square . . .

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Entanglement

Not Just Particles; Small Macro Objects As Well

Quantum entanglement has been demonstrated experimentally with photons, neutrinos, electrons, molecules as large as buckyballs, and even small diamonds.

A Buckyball is a Here is a diamond

Fullurene of C60 crystal C8, a square

with a hollow center. within a square

Ex. Shungite within a square . . .

Entanglement and Non-locality effects are a very active area of research and

development in communications, computation, information, radar, heat engines, and teleportation.

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21st Century Experiments in Quantum Physics

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21st Century Experiments in Quantum Physics

  • Anton Zeilinger is an Austrian Quantum Physicist and President of the Institute for Quantum Optic and Quantum Information at the Austrian Academy of Sciences, born 1945.

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21st Century Experiments in Quantum Physics

  • Anton Zeilinger is an Austrian Quantum Physicist and President of the Institute for Quantum Optic and Quantum Information at the Austrian Academy of Sciences, born 1945.
  • Most of his research concerns applications of entanglement.

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21st Century Experiments in Quantum Physics

  • Anton Zeilinger is an Austrian Quantum Physicist and President of the Institute for Quantum Optic and Quantum Information at the Austrian Academy of Sciences, born 1945.
  • Most of his research concerns applications of entanglement.
  • In 2013 he proved that non-locality applies to not only space but also to time.

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21st Century Experiments in Quantum Physics

  • Anton Zeilinger is an Austrian Quantum Physicist and President of the Institute for Quantum Optic and Quantum Information at the Austrian Academy of Sciences, born 1945.
  • Most of his research concerns applications of entanglement.
  • In 2013 he proved that non-locality applies to not only space but also to time.
  • Zeilinger has held research and teaching positions at MIT, Innsbruck, Oxford, Munich, and Paris.

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21st Century Experiments in Quantum Physics

  • Anton Zeilinger is an Austrian Quantum Physicist and President of the Institute for Quantum Optic and Quantum Information at the Austrian Academy of Sciences, born 1945.
  • Most of his research concerns applications of entanglement.
  • In 2013 he proved that non-locality applies to not only space but also to time.
  • Zeilinger has held research and teaching positions at MIT, Innsbruck, Oxford, Munich, and Paris.
  • He started winning prizes (acknowledgements) in 1975 and won the inaugural John Stewart Bell Prize in 2017 for his contributions in Quantum Mechanics and Applications.

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21st Century Experiments in Quantum Physics

  • Anton Zeilinger is an Austrian Quantum Physicist and President of the Institute for Quantum Optic and Quantum Information at the Austrian Academy of Sciences, born 1945
  • Most of his research concerns applications of entanglement
  • In 2013 he proved that non-locality applies to not only space but also to time
  • Zeilinger has held research and teaching positions at MIT, Innsbruck, Oxford, Munich, and Paris
  • He started winning prizes (acknowledgements) in 1975 and won the inaugural John Stewart Bell Prize in 2017 for his contributions in Quantum Mechanics and Applications
  • As early as 1995 he extended quantum mechanics into the macro-world using entangled photons.

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21st Century Experiments in Quantum Physics

  • Zeilinger wrote and realized by experimentation the first quantum computing protocols including the teleportation of an independent qubit, entanglement swapping (teleportation of an entangled state), hyperdense coding, and quantum cryptography.

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21st Century Experiments in Quantum Physics

  • Zeilinger wrote and realized by experimentation the first quantum computing protocols including the teleportation of an independent qubit, entanglement swapping (teleportation of an entangled state), hyperdense coding, and quantum cryptography.
  • In 1997 he teleported qubits across observatories in two Canary Islands using entanglement.

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21st Century Experiments in Quantum Physics

  • Zeilinger wrote and realized by experimentation the first quantum computing protocols including the teleportation of an independent qubit, entanglement swapping (teleportation of an entangled state), hyperdense coding, and quantum cryptography.
  • He has teleported qubits across observatories in two Canary Islands
  • He is currently experimenting with matter-wave interference from neutrons to macromolecules like fullerenes

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21st Century Experiments in Quantum Physics

  • Zeilinger wrote and realized by experimentation the first quantum computing protocols including the teleportation of an independent qubit, entanglement swapping (teleportation of an entangled state), hyperdense coding, and quantum cryptography.
  • He has teleported qubits across observatories in two Canary Islands
  • He is currently experimenting with matter-wave interference from neutrons to macromolecules like fullerenes
  • And experimenting with multi-particle entanglement resulting in the GHZ Theorem that provides the most concise argument between Local Realism and the predictions of Quantum Mechanics.

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21st Century Experiments in Quantum Physics

  • Zeilinger wrote and realized by experimentation the first quantum computing protocols including the teleportation of an independent qubit, entanglement swapping (teleportation of an entangled state), hyperdense coding, and quantum cryptography.
  • He has teleported qubits across observatories in two Canary Islands
  • He is currently experimenting with matter-wave interference from neutrons to macromolecules like fullerenes
  • And experimenting with multi-particle entanglement resulting in the GHZ Theorem that provides the most concise argument between Local Realism and the predictions of Quantum Mechanics.

These particles are entangled because

they were created from the same source; they interacted together at a wave collapse event; shown at the bottom right shows the event as white light.

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21st Century Experiments in Quantum Physics

  • Zeilinger wrote and realized by experimentation the first quantum computing protocols including the teleportation of an independent qubit, entanglement swapping (teleportation of an entangled state), hyperdense coding, and quantum cryptography.
  • He has teleported qubits across observatories in two Canary Islands
  • He is currently experimenting with matter-wave interference from neutrons to macromolecules like fullerenes
  • And experimenting with multi-particle entanglement resulting in the GHZ Theorem that provides the most concise argument between Local Realism and the predictions of Quantum Mechanics

Dance of the

Anton Zeilinger turns Photons

79 in May this year. by

A. Zeilinger

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21st Century Experiments in Quantum Physics

INFORMATION

  • Toshiba Research and Cambridge University have succeeded in building the first fiber-optic network that’s capable of transmitting and receiving both quantum data (for encryption) and normal high-speed binary data.

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21st Century Experiments in Quantum Physics

INFORMATION

  • Toshiba Research and Cambridge University have succeeded in building the first fiber-optic network that’s capable of transmitting and receiving both quantum data (for encryption) and normal high-speed binary data.
  • This breakthrough means that the world’s fiber networks can now be secured with theoretically unbreakable encryption.

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21st Century Experiments in Quantum Physics

INFORMATION

  • Toshiba Research and Cambridge University have succeeded in building the first conventional fiber-optic network that’s capable of transmitting and receiving both quantum data (for encryption) and normal high-speed binary data.
  • This breakthrough means that the world’s fiber networks can now be secured with theoretically unbreakable encryption.

World’s Fiber Optic Network

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21st Century Experiments in Quantum Physics

INFORMATION

  • Toshiba Research and Cambridge University have succeeded in building the first fiber-optic network that’s capable of transmitting and receiving both quantum data (for encryption) and normal high-speed binary data.
  • This breakthrough means that the world’s fiber networks can now be secured with theoretically unbreakable encryption.

COMPUTERS

  • Quantum computers use the properties of quantum states, such as superposition, interference, and entanglement, to perform calculations.

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21st Century Experiments in Quantum Physics

INFORMATION

  • Toshiba Research and Cambridge University have succeeded in building the first fiber-optic network that’s capable of transmitting and receiving both quantum data (for encryption) and normal high-speed binary data.
  • This breakthrough means that the world’s fiber networks can now be secured with theoretically unbreakable encryption.

COMPUTERS

  • Quantum computers use the properties of quantum states, such as superposition, interference, and entanglement, to perform calculations.
  • Since 2016 IBM and Microsoft have created quantum computers and are experimenting with quantum mechanics and entanglement

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21st Century Experiments in Quantum Physics

INFORMATION

Asaad, Morello, Madzik at University of New South Wales Sydney January 2022, breakthrough paper

COMPUTERS

  • Quantum computers use the properties of quantum states, such as superposition, interference, and entanglement, to perform calculations.
  • Since 2016 IBM and Microsoft have created quantum computers and are experimenting with quantum mechanics and entanglement
  • Australian researchers have proven that near error-free quantum computing is possible, paving the way to build silicon-based quantum devices compatible with current semiconductor manufacturing technology. 99% accuracy

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21st Century Experiments in Quantum Physics

THERMODYNAMICS HEAT ENGINES

PHOTOS and BATTERIES

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21st Century Experiments in Quantum Physics

THERMODYNAMICS HEAT ENGINES

  • Quantum mechanics is pushing back against the Laws of Thermodynamics, particularly the 2nd Law – entropy and the 0th Law - equilibrium

PHOTOS and BATTERIES

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21st Century Experiments in Quantum Physics

THERMODYNAMICS HEAT ENGINES

  • Quantum mechanics is pushing back against the Laws of Thermodynamics, particularly the 2nd Law – entropy and the 0th Law - equilibrium
  • University of Nottingham researchers have discovered that work (2nd Law) can be extracted from systems using quantum superposition states that encode more information than is available classically, March 2021.

PHOTOS and BATTERIES

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21st Century Experiments in Quantum Physics

THERMODYNAMICS HEAT ENGINES

  • Quantum mechanics is pushing back against the Laws of Thermodynamics, particularly the 2nd Law – entropy and the 0th Law - equilibrium
  • University of Nottingham researchers have discovered that work (2nd Law) can be extracted from systems using quantum superposition states that encode more information than is available classically, March 2021.
  • A research team at Penn State describes quantum systems that can be excited to reach an Out-of-Equilibrium Quantum State never realizing equilibrium, September 2019

PHOTOS and BATTERIES

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21st Century Experiments in Quantum Physics

THERMODYNAMICS HEAT ENGINES

  • Quantum mechanics is pushing back against the Laws of Thermodynamics, particularly the 2nd Law – entropy and the 0th Law - equilibrium
  • University of Nottingham researchers have discovered that work (2nd Law) can be extracted from systems using quantum superposition states that encode more information than is available classically, March 2021.
  • A research team at Penn State describes quantum systems that can be excited to reach an Out-of-Equilibrium Quantum State never realizing equilibrium, September 2019

PHOTOS and BATTERIES

  • At the University of Vienna scientists were able to take pictures of objects using photons that had not interacted with the objects but were entangled with photons that did interact with such objects. 2014

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21st Century Experiments in Quantum Physics

THERMODYNAMICS HEAT ENGINES

  • Quantum mechanics is pushing back against the Laws of Thermodynamics, particularly the 2nd Law – entropy and the 0th Law - equilibrium
  • University of Nottingham researchers have discovered that work (2nd Law) can be extracted from systems using quantum superposition states that encode more information than is available classically, March 2021.
  • A research team at Penn State describes quantum systems that can be excited to reach an Out-of-Equilibrium Quantum State never realizing equilibrium, September 2019

PHOTOS and BATTERIES

  • At the University of Vienna scientists were able to take pictures of objects using photons that had not interacted with the objects but were entangled with photons that did interact with such objects. 2014
  • Quantum Batteries are being built and tested that use excited state electrons as fuel. Canada

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21st Century Experiments in Quantum Physics

THERMODYNAMICS HEAT ENGINES

  • Quantum mechanics is pushing back against the Laws of Thermodynamics, particularly the 2nd Law – entropy and the 0th Law - equilibrium
  • University of Nottingham researchers have discovered that work (2nd Law) can be extracted from systems using quantum superposition states that encode more information than is available classically, March 2021.
  • A research team at Penn State describes quantum systems that can be excited to reach an Out-of-Equilibrium Quantum State never realizing equilibrium, September 2019

PHOTOS and BATTERIES

  • At the University of Vienna scientists were able to take pictures of objects using photons that had not interacted with the objects but were entangled with photons that did interact with such objects. 2014
  • Quantum Batteries are being built and tested that use excited state electrons as fuel. Canada
  • A super fast recharge time quantum battery has been built. Italy
  • A Quantum battery with superabsorption was built using electron beam deposition. Australia

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Summary for Arhatic Yogis

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Summary for Arhatic Yogis

  • Healing – Non-Locality, Non-Separability, Quantum Jumping, Schrodinger’s Wave Function

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Summary for Arhatic Yogis

  • Healing – Non-Locality, Non-Separability, Quantum Jumping, Schrodinger’s Wave Function
  • Karma - Entanglement

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Summary for Arhatic Yogis

  • Healing – Non-Locality, Non-Separability, Quantum Jumping, Schrodinger’s Wave Function
  • Karma - Entanglement
  • Prana – Wave-Particle Duality, Heisenberg Uncertainty, Carrier of em spectrum, Entanglement: the Hierarchy can be everywhere at all times

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Summary for Arhatic Yogis

  • Healing – Non-Locality, Non-Separability, Quantum Jumping, Schrodinger’s Wave Function
  • Karma - Entanglement
  • Prana – Wave-Particle Duality, Heisenberg Uncertainty, Carrier of em spectrum, Entanglement: the Hierarchy can be everywhere at all times
  • Clairvoyance, Telepathy, Astral Travel, and other Psychic Phenomena – Matter is mostly Empty Space, Non-Locality, Non-Separability, Entanglement

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Summary for Arhatic Yogis

  • Healing – Non-Locality, Non-Separability, Quantum Jumping, Schrodinger’s Wave Function
  • Karma - Entanglement
  • Prana – Wave-Particle Duality + ?, Heisenberg Uncertainty, Carrier of em spectrum, Entanglement: the Hierarchy can be everywhere at all times
  • Clairvoyance, Telepathy, Astral Travel, and other Psychic Phenomena – Matter is mostly Empty Space, Non-Locality, Non-Separability, Entanglement
  • Meditation – Resonance amplitude sums

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What experiments could we do?

  • Is Prana Field bigger after Conductivity Prayer?
  • Is Prana Field bigger directly after Level I Activating Chakra experience? Body height?
  • Is there a difference between meditation and thought intention in Prana field?
  • Can frequency increase in front of projecting Prana and relatively decrease behind? Like in the Doppler Effect.
  • What else can we test using the dosing rod and linear measurement?

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What are Our Objectives?

  1. To be able to talk to scientists with evidence of prana and its effects on . . .
  2. To ague that the natural progression of physical science is that Classical became Quantum became Prana (In the future future.)
  3. To facilitate awareness of . . .

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What are Our Goals?

1. To be successful in producing statistically significant, reliable, and relevant data supporting first the existence of Prana and Prana Force Field

2. To publish in journals that reach various genres of people

3. To be excepted by the PHRI as a legitimate research team

4. To establish stakeholders and philanthropists at the PHRI to support our research efforts . . .

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This concludes my presentation

Thank You, Thank You, Thank You

Atma Namaste, Love, Peace