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    • Every symmetry of physics laws leads to a conservation law, and every conservation law arises from a symmetry in the laws of physics. 
    • Symmetry is the causal structure built into the creation module.  The creation module has a two-way arrow of time that is built into it.  All current information is always passed back into the versatile storage unit.  These informational totals can’t be changed or deleted.
    • The closed subatomic quantum system is a duplicate of the macro quantum system.  The two systems interact on a binary basis.
  • The triune combined functions of consciousness, quantum gravity, and quantum entanglement act as one from the underside of the fabric of space-time.
    • PHYSICS IS A HUGH AND DIVERSE FIELD OF STUDY:
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    • Symmetry is the causal structure built into the creation module.  The creation module has a two-way arrow of time that is built into it.  All current information is always passed back into the versatile storage unit.  These informational totals can’t be changed or deleted.
    • The closed subatomic quantum system is a duplicate of the macro quantum system.  The two systems interact on a binary basis.
      • CONSCIOUSNESS CREATES SPACE/TIME.
  • 1.  CLASSICAL PHYSICS (FROM THE RENAISSANCE, THROUGH THE BEGINNING OF THE 20TH CENTURY).
  • 2.  MODERN PHYSICS (AFTER THAT, TO NOW).
  • Physics round blue science and education Vector Image
  • THE LAW THAT CONTROLS ALL PARTICLE INTERACTIONS IS THIS:
  • ALL THINGS ARE TRIUNE, WITH BINARY INTERACTIVES.  THIS IS THE LINKAGE BETWEEN MATTER AND FORCE CARRYING PARTICLES. THE LINKAGE BETWEEN THE PARTICLE ZOO IS CONTROLLED BY FERMIONS AND BOSONS. 
  • THE REALITY OF HOW LIFE FORMS CAME ABOUT ON THIS REMOTE BLUE MARBLE IS THIS:  THE EVENT ORIGINATOR WROTE THE CODE, PRODUCED THE BLUEPRINT, AND USED AN EVOLVEMENT PROCESS TO OBTAIN THE REQUISITE RESULT.  IT’S ALL JUST A BINARY SOFTWARE PROGRAM.
Physics in Your Life | The Great Courses
  • ore the turn of the 19th Century, physics concentrated on the study of mechanics, light, sound and wave motion, heat and thermodynamics and electromagnetism.
A. Classical fields studied, include:
  1. Acoustics: (sound and sound waves).
  2. Astronomy: (The study of space, including the planets, stars, galaxies, and the universe.)
  3. Chemical Physics: (The physics of chemical systems.  Understanding the physics of a molecule through a biological system.)
  4. Computational Physics:  (The application of numerical methods to solve physical problems.)
  5. Electronics:  (The study of the flow of electrons, generally in a circuit.)
  6. Electromagnetism:  (The study of electrical and magnetic fields.)
  7. Fluid Dynamics/ Fluid Mechanics:  (The study of the physical properties of fluids and gases.)
  8. Geophysics:  (Study of the physical properties of the Earth.)
  9. Mathematical Physics:  (Using math methods to solve physics problems.)
  10. Mechanics:  (The study of the motion of bodies, referentially.)
  11. Optics/Light Physics:  (The physical properties of light.)
  12. Thermodynamics:  (The physics of heat.)
  Physics Research at the Cavendish — Department of Physics B.  Modern Physics:  Study of the atom, and its component parts.  Relativity, cosmology and space exploration.  Mesoscopic physics. The Map of Physics | A map of everything we know about physi… | Flickr Some of the fields, are:
  1. Astrophysics:  The study of the physical properties of objects in space.
  2. Atomic physics:  The study of atoms.  (the electron properties of the atom.)
  3. Biophysics:  The study of physics in living systems.  Topics can include bio-electronics, nano-medicine, quantum biology, enzyme kinetics, and radiology.
  4. Chaos:  How initial small changes in a system greatly affect outcomes. Chaos theory is an element of quantum physics.
  5. Cosmology:  The study of the universe as a whole, from the big bang until now.
  6. High Energy Physics:  Study of extremely high energy systems, within particle physics.
  7. High-Pressure Physics: High-pressure systems, usually within fluid dynamics.
  8. Laser Physics:  The physical properties of lasers.
  9. Molecular  Physics:  The physical properties of molecules.
  10. Nanotechnology:  Building circuits and machines from single molecules and atoms.
  11. Nuclear Physics:  The physical properties of the atomic nucleus.
  12. Particle Physics:  Fundamental particles and the forces of their interaction.
  13. Plasma Physics:  The study of matter in the plaza phase.
  14. Relativity:  The properties of systems of the theory of relativity that move near the speed of light.
  15. String Theory/Superstring Theory: The study of the theory that all fundamental particles are vibrations of one-dimensional strings of energy, in a higher-dimensional universe.
  16. Quantum Field Theory:  The application of quantum physics to fields, including the fundamental forces of the universe.
  17. Quantum Gravity:  The application of quantum physics to gravity and unification of gravity with the other fundamental particle interactions.
  18. Quantum Mechanics/Quantum physics:  The study of science where the smallest discrete values, or quanta, of matter and energy, become relevant.
  19. Quantum optics: The application of quantum physics to light.
  20. Quantum Electrodynamics:  The study of how electrons and photons interact at the quantum mechanical level.
How Einstein Challenged Newtonian Physics Physics - Northeastern University College of Science Modern physics - Wikipedia Scientists Use Physics to Understand the Mystery of Consciousness
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