QUANTA. Warren E. York. Started: Last Update: Copyright 2009
|
|
- Leslie Owens
- 6 years ago
- Views:
Transcription
1 QUANTA By Warren E. York Started: Last Update: Copyright ABSTRACT: Up until now Quanta has been explained only as a packet or bundle of discreet energy. No real question has been given to the makeup of what Quanta really is or how it comes into being. Classical science only addresses Quanta as a little discreet bundle of energy. Example: A Photon. This paper will go beyond the classical description of Quanta and discuss the where and how that little bundle of energy comes into existence revealing why and how it is detected as a small bundle of discreet energy. Some may ask why do we need to know anything deeper than Quanta being a little discreet bundle of energy? The answer is simple. If man is to learn how and why Nature is as it is, a deeper understanding must be accounted for in mysteries of Nature. Quantum Theory is based on Quanta. Understanding Quanta gives us a better understanding of the Quantum Theory and the Quantum arena itself. The process that will be used to describe Quanta will come from a Theoretical Theory of a Unified Theoretical Nature. It is the foundation what Theoretical Physics is based on. The answers will come from the authors own Unified Field Theory and equation. A brief basic blue print of this theory will be presented so the answer can be understood of how and why the author has come to this conclusion. For a Unified Field Theory to be true this question and many others must be nested in that same Unified Field Theory foundation. The Theory will not change to reveal the answers but will be drawn upon to provide the answers to this and other questions that Nature hides from us. This paper will attempt to address just what Quanta really is and why it is as it is. The author hopes this paper will help spark a deeper interest in Nature and to encourage man not to just sit back working with unknowns without questioning the whys and how s of it all. No question in Nature is too hard to solve once a search for a solution is started. Getting started or finding a starting point on the other hand is the only real hard part. The authors Unified Field Theory, Unified Field Equation (E = MC 2 :: E = MC* <-2-> ) and his 4D Math Aid is offered as that starting point for this and many other questions hidden in Nature. Warren E. York
2 01.0 THE CURRENT DEFINITION FOR QUANTUM: Quantum 1 In physics, a discrete natural unit, or packet, of energy, charge, angular momentum, or other physical property. Light, for example, which appears in some respects as a continuous electromagnetic wave, on the submicroscopic level is emitted and absorbed in discrete amounts, or quanta; for light of a given wavelength, the magnitude of all the quanta emitted or absorbed is the same in both energy and momentum. These particles like packets of light are called photons, a term also applicable to quanta of other forms of electromagnetic energy such as X rays and gamma rays. Submicroscopic mechanical vibrations in the layers of atoms comprising crystals also gives up or takes on energy and momentum in quanta called phonons. See also quantum mechanics. For more information on quantum, visit Britannica.com. Britannica Concise Encyclopedia. Copyright Encyclopædia Britannica, Inc. Quantum Physics a. the smallest quantity of some physical property, such as energy, that a system can possess according to the quantum theory b. a particle with such a unit of energy Collins Discovery Encyclopedia, 1st edition HarperCollins Publishers 2005 Quantum [ kwän təm] (communications) One of the subranges of possible values of a wave which is specified by quantization and represented by a particular value within the subrange. (Quantum mechanics) For certain physical quantities, a unit such that the values of the quantity are restricted to integral multiples of this unit; for example, the quantum of angular momentum is Planck's constant divided by 2π.
3 An entity resulting from quantization of a field or wave, having particle like properties such as energy, mass, momentum and angular momentum; for example, the photon is the quantum of an electromagnetic field, and the phonon is the quantum of a lattice vibration QUANTA DERIVED FROM QUANTUM: Simplifying the definition above of Quantum would be to say Quantum is the state or condition level where Quanta is the actual unit of measurement that resides in that state. This is to say a particle at that level would have quantified unit of measurement or action/motion associated with it. So in short Quanta is describing a specific type of action/motion unit of measurement that is unique and different from other forms of measurement. Quanta is considered a bundle or burst of energy (Light), duration (Time) CONNECTING THE DOTS ASSOCIATED TO QUANTA WITH TERMS OF MEASURMENT: The following list of terms will always be associated with actions describing the quantum unit in question. 1. Scalar: Scalar will always have the action of a closed loop vector attached to it. That is to say, it will be measured as some kind of an AMOUNT or quantity. Taking a small step back here the conventional definition of Scalar is amount without vector. In reality, the vector, direction of that motion or action is what current science calls closed loop vectors. In other words, not an outward vector but inward and or rotational vectors Closed Looped Vectors: That is the action is confined and comes back on itself. For example, a rotating ball would have scalar action/motion associated with it. Its angular momentum would be that scalar action/motion. Gravity has a scalar amount to it. That means it has both closed looped action and monopole vector action (in ward) associated to it. This now has linked scalar to additional terms for our list. GRAVITY: There is physical Gravity and there is Quantum level Gravity. They both are not the same unit of measurement. A general definition of physical level Gravity is a unit of measurement that is linked to quanta by its associated actions/motion of scalar as described above. So when you talk about gravity you will also be talking about closed loop vectors and monopole vectors with scalar motion/action. Associated but hidden within this framework called gravity is another term known as Quantum Level Time. QUANTUM LEVEL TIME: Again there is physical level TIME and there is Quantum Level Time. They both are not the same measurement once again but one (quantum level) makes up the other (physical level) or time as you and I measure it at the physical level. To go into any great detail on quantum level time or physical level time is out of the scope of this paper but needs to be added to this list for it is one of the dots to be connected with quanta.
4 02.02 All the above are quantitized terms meaning their actions or motions are measured in terms of quanta. As you can now see the term quanta denotes a specific state of measurement and not a single set linear value. Keep in mind a set value can be associated to the quantum target such as with gravity or a photon. But that value becomes a scalar value measured on a linier scale. Each different quantum target can have a different quanta value associated to it. Quanta being the unique action/motion associated with that quantum level target. This tells us the quantum world is a different world than our physical level world. Measurements in quanta are not the same as measurements in the physical world directly. This is a known fact and mystery to conventional level science. That factor is explained in a prior paper published in the General Science Journal 2 and attached here at the end of this paper for your reference. The points in question are highlighted in yellow to point out the connection with the two papers. The same paper but published with Journal Of Theoretics, Vol. 3-6, June/July 2004 can be linked at the path: but without the yellow connected path to this paper for those of you that wish to choose to use the Internet in collaboration The Common Factor Between Measurements: The factor that is different between the physical level measurements and the quantum level measurements is none other than a factor of TIME. More precise the factor is that of Physical Time vs. quantum level Time. At this point, the Unified Field Theory will be used to clarify connecting all the dots What is Quanta Viewed From the Current Physical Level?: So by the above current understanding Quanta is a small discreet bundle of energy unit. Since TIME and angular momentum can also come as quantified units of measurement, actual quanta may have different values depending on what unit you are talking about that is quantified. A photon, for example, is a quanties unit. So in reality saying something is quantified we are not talking about a set value for all quantizations but rather a governed burst/bundle of energy depending on the unit of quanta being measured. Since it is not just one set amount for all types of quanta then actual quanta is a governed pulse or packet of said energy that is non linear in nature. If I were to flash a light on and off, that light could be perceived as quanta burst of light but in reality it is each photon in that pulse duration of light that is quantified and not the beam duration. If I leave the light on the pulsed duration goes away but not the quantization for each photon itself. Even though the light beam seems linear. However, each photon still contains a set value known as quanta. To understand what quanta at the quantum level will take a basic understanding of our Theoretical Unified Field Theory at this point Basic Simplified Understanding of Our Theoretical Unified Field Theory: Simplification of Theory: 1. YGEM Theory is based on light. ( The Photon ) [YGEM = York, Geier Electron Model] 2. The Electron is not an elementary particle as thought but instead made up of photons.
5 3. The Electron is made up of 918 paired photons to be exact. 4. The paired photons form two photonic internal quantum TIME tunnels as an X formation. This makes the electron become a point source in space/time. (See YGEM Map, Fig. 1 below) 5. The Electron can take on and give up two electrons at a time when changing energy levels. 6. The center line connecting the two tunnels forms what is called a Hopf Ellipse. 7. That virtual line is the Distance for the Speed of Light. (also zero point & quantum Time) 8. This new pattern formation is both Qudar pole (gravitational) and Dipole (magnetic). 9. The complete pattern formation rotates on an axis and has a spin of ½. 10. This dynamic pattern is our new Electron Model that we call the YGEM. THE YGEM MAP
6 06.0 Mathematical Proof of Concept is Based on Intrinsic Spin of ½: The Electron is known to have a spin of ½ or 720 degrees as compared to our physical world level rotation of spin 1 or 360 degrees. This is a measured fact but yet how can this be? How can one get 720 degrees (spin ½) of rotation out of just 360 (spin 1) degrees of rotation? The only way this can take place is both space, and time have been altered (dilated). This, in fact, by theory is what has taken place. Space and Time at the atomic and quantum levels are different than we measure them here at our physical base level. The yardstick for all of this is the Speed of Light. The speed of light is a constant and does not change but the ratio for the speed of light can and has been changed (altered). The change in the ratio for the constant speed of light is called the Distance for the Speed of Light. In other words, the constant stays the same but the time frame itself has changed (been dilated) that the constant resides in. Think of it as the play area for the speed of light to run in has been scaled down both in rate and distance as measured from our physical level. If we were to be able to move into the new playground at the quantum level (Time Frame) then we would not notice any difference once again, unless we could look back at our present level time frame. The relative measurements then would seem inverted from what we measured of the quantum level from the physical level. The constant at that quantum level would still be measured as the constant but only as long as we are inside that play ground or quantum level Time frame. This is how the speed of light can sometimes be reported as being FTL or faster than the speed of light when measured. It really has not changed but rather the Time Frame has changed. By the way, nature does this all the time on the quantum scale. It is called tunneling.
7
8 06.01 TIME FRAMES WITHIN TIME FRAMES: As one can see from the above graphic of a Hydrogen Atom we can have a time frame B 0 our present physical level time frame of both the dilated B 1 Hydrogen Atom s electron quantum level and the non dilated nueclus of that same atom within the basic physical atomic level of B 0 frame EXTRACTING QUANTA FROM DILATED TIME FRAMES: Our electron will always be in a state of relative motion B 1 as compared to our static physical time frame of B 0 level. Remember by theory our B 0 distance for the speed of light will be a constant while our B 1 time frame for our relative electron will be a ratio change ( )delta, for our distance of the speed of light, a variable. This by the way are the hidden variables in EPR theory. The hidden variables are of Time both at the B 0 and the B 1 time frame levels. B 0 consisting both of itself B 0 physical level and B 1 quantum level time frames. This brings us to the point of this paper. Just what and how quanta is as it is THE WINDOW OF QUANTA: Theoretically, when we talk about the quantum level we are talking about both special and time dilation. We know light is just one form that quanta comes in. It has been considered that Time, electromagnet and even wave functions 3 them self come in quanta form. Look back at our Theoretical Unified Field Theory of the YGEM map. Consider our electron model with angular momentum of which we already know it has. Look at the TIME flow portal of I 1 or just the MARK as I have labeled it. At 45 degree angle as the portal come by the B 0 detector the window opens and data is coupled between time frames. This is like a beacon action and causes the data to be detected in packet form of which we call quanta. This action is a holographic process for depending on the location of each detector the same strobe will be detected but at a slightly different reference point just like a holograph is of its composite target. This window coupling is the time line for our target. Never before to my knowledge has a TIME LINE been described in this manner with such clarity. The possibilities this TIME WINDOW offers is staggering and one that once proven will change the world and how we see it forever.
9
10 08.01 A TIME LINE: Notice in the above Circular Measure figure what is marked as a Time Line. Just what is a real time, time line? A Time Line is a unit of measurement that measures both a point in space and TIME of a target event. All of the quantum windows must be lined up (open) to measure the exact time and point of that event in order for the Time Line to be complete from point A to point B of measurement. When all are aligned and these conditions are met and all the windows are open we will have a real time, time line for our target in question. The open windows act like a set of lock tumblers. Only when all windows are aligned will the Time Line be accessible and the windows become open to every point in space and time along that Time Line. DEFINITION: From Wikipedia A timeline is a project artifact. It is typically a graphic design showing a long bar labeled with dates alongside itself and (usually) events labeled on points where they would have happened. It is used to show events along a period of time SO WHAT MAKES QUANTA A BURST OF ENERGY THAT IT IS? As the electron turns on its axis of angular momentum and at some point the quantum level window and the physical level windows will align there by allowing a signal or a burst of energy we call quanta to couple between levels or Time Frames. This action is like a beacon strobe light. This is also why and how we can detect the spin ½ for the electron with our detectors. They indicate 720 degrees of rotation for every 360 degree rotation in our physical world as the EM (electromagnet) energy is coupled between time frame states. Only when the two time frames windows align, is a signal allowed to pass between the time frame states. That is why and how Quanta is what it is and how it is. It is also why and how we can detect the electron of having an intrinsic spin of ½ or 720 degrees while having 360 degree physical axis of rotation at the same time for our physical states time frame. The alignment of the time frame windows act as a governor to the amount of energy burst, ( Quanta )allowed. This part of the theory can be tested by trying to generate a different spin state for the electron. I feel this is what might be happening when it is claimed to have stopped light in its tracks. I feel what might be going on instead is the windows are being synched with our physical time frame making light to look as if it has been stopped. It then can be restarted again by unsynching the alignment of the windows. Spintronics is a good point to test this possibility. I encourage further development and considerations by anybody that wishes to consider the challenge. Enjoy and thank you all for hearing me out. Questions are always welcome. I am now researching the possibilities of not just a window but a doorway. One that not just data like the window can couple but one that will couple to matter itself as a doorway.
11 REFERENCES 1. QUANTA: 2. Discovery of a Solution to the Heisenberg Uncertainty Principle Conflict between Relativistic Intrinsic Spin and Classical Mechanics. and 3. Emergence of Quanta in a Wave Model, June 14, 2005, A.G. Booth 4. Definition of a TIME LINE:
Quantum Theory of the Atom
The Wave Nature of Light Quantum Theory of the Atom Electromagnetic radiation carries energy = radiant energy some forms are visible light, x rays, and radio waves Wavelength ( λ) is the distance between
More informationJournal of Theoretics
Journal of Theoretics 4D Unified Math and Its New Unified Field Theory Proposal Author: Warren E. York Infonet Research Infonet@home.com or warren.york@juno.com Abstract: The author will present for the
More informationMITOCW watch?v=wr88_vzfcx4
MITOCW watch?v=wr88_vzfcx4 PROFESSOR: So we're building this story. We had the photoelectric effect. But at this moment, Einstein, in the same year that he was talking about general relativity, he came
More informationQuantum Gravity & Time As Derived From Pi/Time ( A 4D Unified Math Concept )
Quantum Gravity & Time As Derived From Pi/Time ( A 4D Unified Math Concept ) By Warren E. York Technical Editor Ted Twietmeyer C psientific@charter.net pubmaster@charter.net Copyrighted TABLE OF CONTENTS
More informationCosmology Lecture 2 Mr. Kiledjian
Cosmology Lecture 2 Mr. Kiledjian Lecture 2: Quantum Mechanics & Its Different Views and Interpretations a) The story of quantum mechanics begins in the 19 th century as the physicists of that day were
More informationEnergy and the Quantum Theory
Energy and the Quantum Theory Light electrons are understood by comparing them to light 1. radiant energy 2. travels through space 3. makes you feel warm Light has properties of waves and particles Amplitude:
More informationBlack Holes. Over the top? Black Holes. Gravity s Final Victory. Einstein s Gravity. Near Black holes escape speed is greater than the speed of light
Black Holes Over the top? What if the remnant core is very massive? M core > 2-3 M sun (original star had M > 18 M sun ) Neutron degeneracy pressure fails. Nothing can stop gravitational collapse. Collapses
More informationSometimes light acts like a wave Reminder: Schedule changes (see web page)
Announcements Sometimes light acts like a wave Reminder: Schedule changes (see web page) No class on Thursday 3/18 Exam 2 pushed back to Tues. 3/30 Today: Quantum Mechanics (Ch.13/14) Bright: Constructive
More informationThe Magnetic field of the Electric current and the Magnetic induction
The Magnetic field of the Electric current and the Magnetic induction This paper explains the magnetic effect of the electric current from the observed effects of the accelerating electrons, causing naturally
More informationLecture Outlines. Chapter 22. Astronomy Today 8th Edition Chaisson/McMillan Pearson Education, Inc.
Lecture Outlines Chapter 22 Astronomy Today 8th Edition Chaisson/McMillan Chapter 22 Neutron Stars and Black Holes Units of Chapter 22 22.1 Neutron Stars 22.2 Pulsars 22.3 Neutron-Star Binaries 22.4 Gamma-Ray
More informationAnnouncement. Station #2 Stars. The Laws of Physics for Elementary Particles. Lecture 9 Basic Physics
Announcement Pick up your quiz after this lecture as you leave the lecture hall. Homework#2 due on Thursday No hand-written homework! Please staple them! Put it in the box before the lecture begins! Station
More informationElectrons, Energy, & the Electromagnetic Spectrum Notes
Electrons, Energy, & the Electromagnetic Spectrum Notes Bohr Model Diagram Interpretation What form of EM radiation is released when an electron in a hydrogen atom falls from the 5 th energy level to the
More informationOutline Chapter 9 The Atom Photons Photons The Photoelectron Effect Photons Photons
Outline Chapter 9 The Atom 9-1. Photoelectric Effect 9-3. What Is Light? 9-4. X-rays 9-5. De Broglie Waves 9-6. Waves of What? 9-7. Uncertainty Principle 9-8. Atomic Spectra 9-9. The Bohr Model 9-10. Electron
More informationThe Structure of the Atom Review
The Structure of the Atom Review Atoms are composed of PROTONS + positively charged mass = 1.6726 x 10 27 kg NEUTRONS neutral mass = 1.6750 x 10 27 kg ELECTRONS negatively charged mass = 9.1096 x 10 31
More informationChap. 3. Elementary Quantum Physics
Chap. 3. Elementary Quantum Physics 3.1 Photons - Light: e.m "waves" - interference, diffraction, refraction, reflection with y E y Velocity = c Direction of Propagation z B z Fig. 3.1: The classical view
More informationLecture 01. Introduction to Elementary Particle Physics
Introduction to Elementary Particle Physics Particle Astrophysics Particle physics Fundamental constituents of nature Most basic building blocks Describe all particles and interactions Shortest length
More informationChapter 18 The Bizarre Stellar Graveyard
Chapter 18 The Bizarre Stellar Graveyard 18.1 White Dwarfs Our goals for learning What is a white dwarf? What can happen to a white dwarf in a close binary system? What is a white dwarf? White Dwarfs White
More informationCh 7 Quantum Theory of the Atom (light and atomic structure)
Ch 7 Quantum Theory of the Atom (light and atomic structure) Electromagnetic Radiation - Electromagnetic radiation consists of oscillations in electric and magnetic fields. The oscillations can be described
More informationChapter 18 Lecture. The Cosmic Perspective Seventh Edition. The Bizarre Stellar Graveyard Pearson Education, Inc.
Chapter 18 Lecture The Cosmic Perspective Seventh Edition The Bizarre Stellar Graveyard The Bizarre Stellar Graveyard 18.1 White Dwarfs Our goals for learning: What is a white dwarf? What can happen to
More informationAtomic Structure Ch , 9.6, 9.7
Ch. 9.2-4, 9.6, 9.7 Magnetic moment of an orbiting electron: An electron orbiting a nucleus creates a current loop. A current loop behaves like a magnet with a magnetic moment µ:! µ =! µ B " L Bohr magneton:
More informationChapter 18 The Bizarre Stellar Graveyard. White Dwarfs. What is a white dwarf? Size of a White Dwarf White Dwarfs
Chapter 18 The Bizarre Stellar Graveyard 18.1 White Dwarfs Our goals for learning What is a white dwarf? What can happen to a white dwarf in a close binary system? What is a white dwarf? White Dwarfs White
More informationChapter 13 2/19/2014. Lecture Outline Neutron Stars. Neutron Stars and Black Holes Neutron Stars. Units of Chapter
13.1 Neutron Stars Lecture Outline Chapter 13 Neutron Stars and After a Type I supernova, little or nothing remains of the original star. After a Type II supernova, part of the core may survive. It is
More informationThe Magnetic field of the Electric current and the Magnetic induction
The Magnetic field of the Electric current and the Magnetic induction This paper explains the magnetic effect of the electric current from the observed effects of the accelerating electrons, causing naturally
More informationName Final Exam December 7, 2015
Name Final Exam December 7, 015 This test consists of five parts. Please note that in parts II through V, you can skip one question of those offered. Part I: Multiple Choice (mixed new and review questions)
More informationPhysics of Subspace Geometry
Physics of Subspace Geometry By David Butterworth Lulu.com Self Publishing Text available under the Creative Common Attribution / NonCommercial. CC BY -NC Synopsis The physics of subspace geometry is a
More informationThe Wave Nature of Light Made up of. Waves of fields at right angles to each other. Wavelength = Frequency =, measured in
Chapter 6 Electronic Structure of Atoms The Wave Nature of Light Made up of. Waves of fields at right angles to each other. Wavelength = Frequency =, measured in Kinds of EM Waves There are many different
More informationProblems with the atomic model?
Modern Atomic Theory- Electronic Structure of Atoms DR HNIMIR-CH7 Where should (-) electrons be found? Problems with the atomic model? First, a Little About Electromagnetic Radiation- Waves Another Look
More informationLecture 16 Quantum Physics Chapter 28
Lecture 16 Quantum Physics Chapter 28 Particles vs. Waves Physics of particles p = mv K = ½ mv2 Particles collide and do not pass through each other Conservation of: Momentum Energy Electric Charge Physics
More informationChapter 14: The Bizarre Stellar Graveyard
Lecture Outline Chapter 14: The Bizarre Stellar Graveyard 14.1 White Dwarfs Our goals for learning: What is a white dwarf? What can happen to a white dwarf in a close binary system? What is a white dwarf?
More informationWhite dwarfs are the remaining cores of dead stars. Electron degeneracy pressure supports them against the crush of gravity. The White Dwarf Limit
The Bizarre Stellar Graveyard Chapter 18 Lecture The Cosmic Perspective 18.1 White Dwarfs Our goals for learning: What is a white dwarf? What can happen to a white dwarf in a close binary system? Seventh
More information1 Introduction. 1.1 The Standard Model of particle physics The fundamental particles
1 Introduction The purpose of this chapter is to provide a brief introduction to the Standard Model of particle physics. In particular, it gives an overview of the fundamental particles and the relationship
More informationSpecial Theory of Relativity Prof. Shiva Prasad Department of Physics Indian Institute of Technology, Bombay
Special Theory of Relativity Prof. Shiva Prasad Department of Physics Indian Institute of Technology, Bombay Lecture - 24 Current Density Four Vector and Maxwell Equation Hello, so we have now come to
More informationMechanics, Heat, Oscillations and Waves Prof. V. Balakrishnan Department of Physics Indian Institute of Technology, Madras
Mechanics, Heat, Oscillations and Waves Prof. V. Balakrishnan Department of Physics Indian Institute of Technology, Madras Lecture - 21 Central Potential and Central Force Ready now to take up the idea
More informationJournal of Theoretics
Journal of Theoretics Guest Commentary Volume 6-4, Aug/Sept 2004 From Space-time to Space Amrit Sorli, Kusum Sorli SpaceLife Institute, Podere San Giorgio 16, 53012 Chiusdino (SI), Italy www.directscientificexperience.com
More informationAtomic Structure and the Periodic Table
Atomic Structure and the Periodic Table The electronic structure of an atom determines its characteristics Studying atoms by analyzing light emissions/absorptions Spectroscopy: analysis of light emitted
More informationCard Appendix Quantum Concepts
1 Physics 310 Card Appendix Quantum Concepts Table of Contents 0. Blackbody Radiation 2 3. Normalize 2 4. Angular Momentum 3 4. Hydrogen 4 5. Wavefunction 4 6. Photoelectric Effect 5 7. Lowering Operator
More informationElectronic Structure. of Atoms. 2009, Prentice-Hall, Inc. Electronic Structure. of Atoms. 2009, Prentice-Hall, Inc. Electronic Structure.
Chemistry, The Central Science, 11th edition Theodore L. Brown; H. Eugene LeMay, Jr.; and Bruce E. Bursten Chapter 6 Section 1 6: The Marathon Adapted from: John D. Bookstaver St. Charles Community College
More informationThe Atom and its components The 4 phases of matter The electromagnetic field Light traveling electromagnetic waves, quantized as photons Accelerate
Astro 7: Chapter 5 Matter & Light The Atom and its components The 4 phases of matter The electromagnetic field Light traveling electromagnetic waves, quantized as photons Accelerate an electric charge,
More informationTHE FINE STRUCTURE CONSTANT AND PLANCK'S CONSTANT. by Miles Mathis milesmathis.com
THE FINE STRUCTURE CONSTANT AND PLANCK'S CONSTANT by Miles Mathis milesmathis.com Abstract: I will show that Planck's constant is a paper wall built to hide the mass of the photon. After that I will unwind
More informationModern Physics notes Paul Fendley Lecture 6
Modern Physics notes Paul Fendley fendley@virginia.edu Lecture 6 Size of the atom A digression on hand-waving arguments Spectral lines Feynman, 2.4-5 Fowler, Spectra, The Bohr atom The size of the atom
More informationGeneral Chemistry by Ebbing and Gammon, 8th Edition
Chem 1045 General Chemistry by Ebbing and Gammon, 8th Edition George W.J. Kenney, Jr Last Update: 26-Mar-2009 Chapter 7: Quantum Theory of the Atom These Notes are to SUPPLIMENT the Text, They do NOT Replace
More information3. Quantum Mechanics in 3D
3. Quantum Mechanics in 3D 3.1 Introduction Last time, we derived the time dependent Schrödinger equation, starting from three basic postulates: 1) The time evolution of a state can be expressed as a unitary
More informationA Resolution of the Vacuum Catastrophe
A Resolution of the Vacuum Catastrophe Described as "the worst theoretical prediction in the history of physics." the vacuum catastrophe can best be described as the roughly 120 orders of magnitude difference
More informationQuantum Decoherence due to Gravitational Time Dilation
Quantum Decoherence due to Gravitational Time Dilation Gravitational time dilation causes decoherence of composite quantum systems. Even if gravitons are there, it s probable that we would never be able
More informationThe Dark Side of the Higgs Field and General Relativity
The Dark Side of the Higgs Field and General Relativity The gravitational force attracting the matter, causing concentration of the matter in a small space and leaving much space with low matter concentration:
More information11/1/16. Important Stuff (Section 001: 9:45 am) Important Stuff (Section 002, 1:00 pm) 14.1 White Dwarfs. Chapter 14: The Bizarre Stellar Graveyard
Important Stuff (Section 001: 9:45 am) The Second Midterm is Thursday, November 10 The Second Midterm will be given in a different room: Willey 175 Bring 2 pencils and a photo-id. In accordance with the
More information1 Introduction. 1.1 Stuff we associate with quantum mechanics Schrödinger s Equation
1 Introduction Quantum Theory and quantum mechanics belong to the greatest success stories of science. In a number of ways. First, quantum theories are among the most successful in terms of predicting
More information11/1/17. Important Stuff (Section 001: 9:45 am) Important Stuff (Section 002, 1:00 pm) 14.1 White Dwarfs. Chapter 14: The Bizarre Stellar Graveyard
11/1/17 Important Stuff (Section 001: 9:45 am) The Second Midterm is Thursday, November 9 The Second Midterm will be given in a different room: Willey 175 Bring 2 pencils and a photo-id. In accordance
More informationSCIENCE 1209 ATOMIC AND NUCLEAR PHYSICS
SCIENCE 1209 ATOMIC AND NUCLEAR PHYSICS CONTENTS I. QUANTUM THEORY.................... 2 ELECTROMAGNETIC RADIATION.................... 2 MATTER WAVES................................ 8 ATOMIC MODELS...............................
More informationEPR Paradox Solved by Special Theory of Relativity
EPR Paradox Solved by Special Theory of Relativity Justin Lee June 20 th, 2013 Abstract This paper uses the special theory of relativity (SR) to introduce a novel solution to Einstein- Podolsky-Rosen (EPR)
More informationSemiconductor Physics and Devices
Introduction to Quantum Mechanics In order to understand the current-voltage characteristics, we need some knowledge of electron behavior in semiconductor when the electron is subjected to various potential
More informationLecture 11 Atomic Structure
Lecture 11 Atomic Structure Earlier in the semester, you read about the discoveries that lead to the proposal of the nuclear atom, an atom of atomic number Z, composed of a positively charged nucleus surrounded
More informationIntroduction to Quantum Mechanics Prof. Manoj Kumar Harbola Department of Physics Indian Institute of Technology, Kanpur
Introduction to Quantum Mechanics Prof. Manoj Kumar Harbola Department of Physics Indian Institute of Technology, Kanpur Lecture - 04 Quantum conditions and atomic structure, electron spin and Pauli exclusion
More informationHiggs Field and Quantum Gravity
Higgs Field and Quantum Gravity The magnetic induction creates a negative electric field, causing an electromagnetic inertia responsible for the relativistic mass change; it is the mysterious Higgs Field
More informationThe Electron Cloud. Here is what we know about the electron cloud:
The Electron Cloud Here is what we know about the electron cloud: It contains the subatomic particles called electrons This area accounts for most of the volume of the atom ( empty space) These electrons
More informationExam Results. Force between charges. Electric field lines. Other particles and fields
Exam: Exam scores posted on Learn@UW No homework due next week Exam Results F D C BC B AB A Phy107 Fall 2006 1 Particles and fields We have talked about several particles Electron,, proton, neutron, quark
More informationShort Note on Unification of Field Equations and Probability
Physics and Mathematics The Haunted Fields 6 November 28 (v.2.) Short Note on Unification of Field Equations and Probability Mesut KAVAK Is math in harmony with existence? Is it possible to calculate any
More informationNotes for Special Relativity, Quantum Mechanics, and Nuclear Physics
Notes for Special Relativity, Quantum Mechanics, and Nuclear Physics 1. More on special relativity Normally, when two objects are moving with velocity v and u with respect to the stationary observer, the
More informationRadiation - Electromagnetic Waves (EMR): wave consisting of oscillating electric and magnetic fields that move at the speed of light through space.
Radiation - Electromagnetic Waves (EMR): wave consisting of oscillating electric and magnetic fields that move at the speed of light through space. Photon: a quantum of light or electromagnetic wave. Quantum:
More informationChapter 6. Electronic Structure of Atoms
Chapter 6 Electronic Structure of Atoms 6.1 The Wave Nature of Light Made up of electromagnetic radiation. Waves of electric and magnetic fields at right angles to each other. Parts of a wave Wavelength
More informationFrom Quantum Mechanics to String Theory
From Quantum Mechanics to String Theory Relativity (why it makes sense) Quantum mechanics: measurements and uncertainty Smashing things together: from Rutherford to the LHC Particle Interactions Quarks
More informationThe Bohr Magneton and Bohr's second and third biggest mistakes
The Bohr Magneton and Bohr's second and third biggest mistakes by Miles Mathis Abstract: I will show several problems with the derivation of the Bohr Magneton. Using that analysis, I will look again at
More informationChapter 30 Quantum Physics 30.1 Blackbody Radiation and Planck s Hypothesis of Quantum Energy 30.2 Photons and the Photoelectric Effect 30.
Chapter 30 Quantum Physics 30.1 Blackbody Radiation and Planck s Hypothesis of Quantum Energy 30.2 Photons and the Photoelectric Effect 30.3 The Mass and Momentum of a Photon 30.4 Photon Scattering and
More informationHiggs boson may appear to be a technihiggs
Higgs boson may appear to be a technihiggs The discovered elusive Higgs boson, first predicted theoretically, turns out to may have been a different particle after all. A team of international researchers
More informationPSI AP Physics How was it determined that cathode rays possessed a negative charge?
PSI AP Physics 2 Name Chapter Questions 1. How was it determined that cathode rays possessed a negative charge? 2. J. J. Thomson found that cathode rays were really particles, which were subsequently named
More informationBellwork: Calculate the atomic mass of potassium and magnesium
Bellwork: Calculate the atomic mass of potassium and magnesium Chapter 5 - electrons in atoms Section 5.1: Revising the atomic model What did Ernest Rutherford think about electrons? In Rutherford s model,
More informationA most elegant philosophy about the Theory Of Everything
A most elegant philosophy about the Theory Of Everything Author: Harry Theunissen (pseudonym) Email: htheunissen61@hotmail.com Abstract: Given a simple set of assumptions, this paper gives an elegant explanation
More information--THE QUANTUM MECHANICAL MODEL
--THE QUANTUM MECHANICAL MODEL Bohr s Energy Levels Electrons reside in certain energy levels Each level represents a certain amount of energy Low Energy levels: closer to nucleus High Energy levels: farther
More informationCHM The Basics of Quantum Mechanics (r14) Charles Taylor 1/6
CHM 110 - The Basics of Quantum Mechanics (r14) - 2014 Charles Taylor 1/6 Introduction We've discussed how Bohr's model predicted the behavior of the hydrogen atom. To describe the other atoms (and get
More informationA Much Closer Look at Atomic Structure
Ideas We Will Clear Up Before You Graduate: WRONG IDEAS 1. The electron always behaves as a particle. BETTER SUPPORTED BY EXPERIMENTS 1. There s a wavelength associated with very small particles like the
More informationQuantum Field Theory. Chapter Introduction. 8.2 The Many Particle State
Chapter 8 Quantum Field Theory?? 8.1 Introduction We have studied the properties of photons primarily as single particles. It was Einstein s great discovery to realize that particulate basis of light.
More informationBohr. Electronic Structure. Spectroscope. Spectroscope
Bohr Electronic Structure Bohr proposed that the atom has only certain allowable energy states. Spectroscope Using a device called a it was found that gaseous elements emitted electromagnetic radiation
More informationElectromagnetic Field Energy
Electromagnetic Field Energy John L. O Sullivan Independent Researcher johnosullivan@att.net Abstract: Existences have tangible dimensions and intangible dimensions. The tangible dimensions have finite
More informationExperimental Values of Lorentz Transformations of Mass and Time
Experimental Values of Lorentz Transformations of Mass and Time Lorentz Transformation Thought Experiment GPS Clock Calculations Pound-Rebka Experiment Triplet Paradox Experiment The Lorentz transformation
More information3. Write ground-state electron configurations for any atom or ion using only the Periodic Table. (Sections 8.3 & 9.2)
Lecture 2: learning objectives, readings, topics, and resources: 1. Understand the significance of the quantum numbers, understand how they can be used to code for the electron energy levels within atoms
More informationChapter 6: The Electronic Structure of the Atom Electromagnetic Spectrum. All EM radiation travels at the speed of light, c = 3 x 10 8 m/s
Chapter 6: The Electronic Structure of the Atom Electromagnetic Spectrum V I B G Y O R All EM radiation travels at the speed of light, c = 3 x 10 8 m/s Electromagnetic radiation is a wave with a wavelength
More informationQuick Review. 1. Kinetic Molecular Theory. 2. Average kinetic energy and average velocity. 3. Graham s Law of Effusion. 4. Real Gas Behavior.
Quick Review 1. Kinetic Molecular Theory. 2. Average kinetic energy and average velocity. 3. Graham s Law of Effusion. 4. Real Gas Behavior. Emission spectra Every element has a unique emission spectrum
More informationLecture Outline Chapter 30. Physics, 4 th Edition James S. Walker. Copyright 2010 Pearson Education, Inc.
Lecture Outline Chapter 30 Physics, 4 th Edition James S. Walker Chapter 30 Quantum Physics Units of Chapter 30 Blackbody Radiation and Planck s Hypothesis of Quantized Energy Photons and the Photoelectric
More informationThe Pound-Rebka Experiment as Disproof of Einstein s General Relativity Gravity Theory.
The Pound-Rebka Experiment as Disproof of Einstein s General Relativity Gravity Theory. By James Carter When Einstein first used his equations to predict the transverse gravitational red shift of photons
More informationQuantum Mechanics-I Prof. Dr. S. Lakshmi Bala Department of Physics Indian Institute of Technology, Madras. Lecture - 21 Square-Integrable Functions
Quantum Mechanics-I Prof. Dr. S. Lakshmi Bala Department of Physics Indian Institute of Technology, Madras Lecture - 21 Square-Integrable Functions (Refer Slide Time: 00:06) (Refer Slide Time: 00:14) We
More informationSuperposition - World of Color and Hardness
Superposition - World of Color and Hardness We start our formal discussion of quantum mechanics with a story about something that can happen to various particles in the microworld, which we generically
More information37-6 Watching the electrons (matter waves)
37-6 Watching the electrons (matter waves) 1 testing our proposition: the electrons go either through hole 1 or hole 2 add a very strong light source behind walls between two holes, electrons will scatter
More informationChapter 6 - Electronic Structure of Atoms
Chapter 6 - Electronic Structure of Atoms 6.1 The Wave Nature of Light To understand the electronic structure of atoms, one must understand the nature of electromagnetic radiation Visible light is an example
More informationRelativistic corrections of energy terms
Lectures 2-3 Hydrogen atom. Relativistic corrections of energy terms: relativistic mass correction, Darwin term, and spin-orbit term. Fine structure. Lamb shift. Hyperfine structure. Energy levels of the
More informationChapter 27 Lecture Notes
Chapter 27 Lecture Notes Physics 2424 - Strauss Formulas: λ P T = 2.80 10-3 m K E = nhf = nhc/λ fλ = c hf = K max + W 0 λ = h/p λ - λ = (h/mc)(1 - cosθ) 1/λ = R(1/n 2 f - 1/n 2 i ) Lyman Series n f = 1,
More informationDavid J. Starling Penn State Hazleton PHYS 214
All the fifty years of conscious brooding have brought me no closer to answer the question, What are light quanta? Of course today every rascal thinks he knows the answer, but he is deluding himself. -Albert
More informationQuantum Physics and General Relativity
Quantum Physics and General Relativity The self maintained electric potential of the accelerating charges equivalent with the General Relativity space-time curvature, and since it is true on the quantum
More informationStudents' Alternate Conceptions in Introductory Physics
Students' Alternate Conceptions in Introductory Physics The following is a list of preconceptions and misconceptions that high school physics teachers and college professors have recognized in their students.
More informationGravitation. Adrian Ferent. This is a new quantum gravity theory which breaks the wall of Planck scale. Abstract
Gravitation Adrian Ferent This is a new quantum gravity theory which breaks the wall of Planck scale. My Nobel Prize Idea Abstract The Photon Graviton pair (coupled) has the same speed and frequency, and
More informationCHEMISTRY. Chapter 6 Electronic Structure of Atoms
CHEMISTRY The Central Science 8 th Edition Chapter 6 Electronic Structure of Atoms Kozet YAPSAKLI Who are these men? Ancient Philosophy Who: Aristotle, Democritus When: More than 2000 years ago Where:
More informationAtoms and Spectra October 8th, 2013
Atoms and Spectra October 8th, 2013 Announcements Second writing assignment due two weeks from today (again, on a news item of your choice). Be sure to make plans to visit one of the open observing nights
More informationThe Photoelectric Effect
The Photoelectric Effect Light can strike the surface of some metals causing an electron to be ejected No matter how brightly the light shines, electrons are ejected only if the light has sufficient energy
More informationCOLLEGE PHYSICS. Chapter 30 ATOMIC PHYSICS
COLLEGE PHYSICS Chapter 30 ATOMIC PHYSICS Matter Waves: The de Broglie Hypothesis The momentum of a photon is given by: The de Broglie hypothesis is that particles also have wavelengths, given by: Matter
More informationThe Boundary between Classical and Quantum Mechanics
The Boundary between Classical and Quantum Mechanics In the quantum world, physicists study the tiny particles that make up our classical world - neutrons, electrons, photons - either one at a time or
More informationSelect/ Special Topics in Atomic Physics Prof. P. C. Deshmukh Department of Physics Indian Institute of Technology, Madras
Select/ Special Topics in Atomic Physics Prof. P. C. Deshmukh Department of Physics Indian Institute of Technology, Madras Lecture No. # 06 Angular Momentum in Quantum Mechanics Greetings, we will begin
More informationLABORATORY 4: ROTATIONAL MOTION PLAYGROUND DYNAMICS: THE MERRY-GO-ROUND Written May-June 1993 by Melissa Wafer '95
LABORATORY 4: ROTATIONAL MOTION PLAYGROUND DYNAMICS: THE MERRY-GO-ROUND Written May-June 1993 by Melissa Wafer '95 In this laboratory period, you will use something that should be familiar to you to explain
More informationModern Physics for Scientists and Engineers International Edition, 4th Edition
Modern Physics for Scientists and Engineers International Edition, 4th Edition http://optics.hanyang.ac.kr/~shsong Review: 1. THE BIRTH OF MODERN PHYSICS 2. SPECIAL THEORY OF RELATIVITY 3. THE EXPERIMENTAL
More informationChapter 5. The Electromagnetic Spectrum. What is visible light? What is visible light? Which of the following would you consider dangerous?
Which of the following would you consider dangerous? X-rays Radio waves Gamma rays UV radiation Visible light Microwaves Infrared radiation Chapter 5 Periodicity and Atomic Structure 2 The Electromagnetic
More informationThe Basics of Light. Sunrise from the Space Shuttle, STS-47 mission. The Basics of Light
The Basics of Light The sun as it appears in X-ray light (left) and extreme ultraviolet light (right). Light as energy Light is remarkable. It is something we take for granted every day, but it's not something
More informationNotes on wavefunctions IV: the Schrödinger equation in a potential and energy eigenstates.
Notes on wavefunctions IV: the Schrödinger equation in a potential and energy eigenstates. We have now seen that the wavefunction for a free electron changes with time according to the Schrödinger Equation
More information