INTRODUCTION
This document is for persons who have received their graduate degree in theoretical physics and are looking to make their way into the concentration of superstring theory, and what postgraduate mathematics courses are required to do so. Supersting theory is one of the latest forms of theoretical physics and a popular topic with today’s society. However, because of the highly advanced nature of the mathematics involved with Supersting theory, two postgraduate forms of mathematics are required in order to be on the leading edge of work in this field. These are Noncommutative Geometry and K-theory.
FINDINGS
STRING THEORY
Superstring theory is an attempt by humans to model the four fundamental forces of physics as vibrations of tiny supersymmetric strings. Superstring theory seems the most likely to lead to theories of quantum gravity, an attempt to explain gravity’s relatively weak force when compared to the other forces of physics (“Quantum gravity”, nd). Superstring theory is also "supersymmetric string theory." It is referred to as this because unlike bosonic string theory, the original form of string theory (Bosonic string theory, nd), it is the version of the theory that incorporates fermions, particles that form totally antisymmetric composite quantum states (Fermions, nd), and supersymmetry, which link bosons and fermions (“Supersymmetry”, nd; “Superstring theory”, nd)
As of now, the main goal of theoretical physics is to explain how gravity relates to the other three fundamental forces of natural physics. However with as with every quantum field theory, there are infinite probabilities that result from the calculations. Unlike electromagnetic force, strong nuclear force, and weak nuclear force, physicists have not been able to find a mathematical technique that eliminates these infinities (“Superstring theory”, nd). Therefore, the quantum theory of gravity must be developed by a different means than those used for the other forces.
Superstring theory dictates that the base of all that is real would be tiny vibrating strings the size of a plank’s length. The proposed messenger particle for gravitational force, a graviton is predicted by the theory to be a string with wave amplitude zero. Another insight the theory provides is that “no measurable differences can be detected between strings that wrap around dimensions smaller than themselves and those that move along larger dimensions (i.e., effects in a dimension of size R equal those whose size is 1/R)” (Superstring theory, nd para 3). This is true because according to currant theory, a universe could never become smaller than a string.
Einstein’s Special Theory of Relativity has had a colossal impact on the world and is the accepted physical theory reg...
Part I: The Edge of Knowledge Chapter 1: Tied Up with Strings This is the introductory section, where the author, Brian Greene, examines the fundamentals of what is currently proven to be true by experimentation in the realm of modern physics. Green goes on to talk more about "The Basic Idea" of string theory. He describes how physicists are aspiring to reach the Theory of Everything, or T.O.E. Some suspect when string theory is completely understood that it might turn out to become the T.O.E.Part II: The Dilemma of Space, Time, and Quanta Chapter 2: Space, Time, and the Eye of the Beholder In the chapter, Greene describes how Albert Einstein solved the paradox about light. In the mid-1800's James Maxwell succeeded in showing that light was actually an electromagnetic wave.
Quantum Mechanics is a branch of physics that describes the structure and behavior of matter.
Theory is an attempt to explain the unexplained, to give title to the untitled and to give reason to the unreasonable. It is a combination of existing knowledge and newly acquired knowledge that allows us to make assumptions in order to realize reasonably foreseeable outcomes. It is only in the realms of science, physics and mathematics that the repeated application
It can only explain how nature works by observing the effects on material objects. In his book In Search of Schrödinger's Catch. 8, Gribbin suggests the possibility that no particle is real until it is observed. The act of observation collapses the wave function so that one of a number of ghost particles becomes a real particle. This idea has similarities with idealism and its appearance and reality arguments. Gribbin does not take the argument forward, so let us consider the philosophical arguments instead of the physics.
In 1905, Einstein’s Theory of Special Relativity was proposed. The reason that it is so "special" is because it was part of the more complex and extensive Theory of General Relativity, which was published in 1915. His theory reshaped the world of physics when it contradicted all previous laws of motion erected by Galileo and Newton. By mathematically manipulating these previous laws of motion, physicists in the nineteenth century were able to explain such phenomena as the flow of the ocean, the orbits of planets around the sun, the fall of rocks, and the random behavior of molecules in gases. At first, Einstein faced great opposition when he came up with his radical new theory because the previous laws of motion proposed by Galileo and expanded upon by Newton had remained valid for over two hundred years. However, it wouldn’t be long before the "cement" in the foundation of Newtonian and Galilean physics would begin to crumble.
of the Theory of Superstrings and the Theory of Everything in 1974 saw a new
...ter, as well as the basics of string theory like the strong/weak nuclear forces, electromagnetism and gravity. The end goal of all of your work with Caltech is to strengthen existing knowledge on string theory and prove its accuracy. References for reccomendation are preferred, as is 5 years experience in this field. Good communication, technical, manegerial and writing skills required for this position.
Stemming from the first years of the 20th century, quantum mechanics has had a monumental influence on modern science. First explored by Max Planck in the 1900s, Einstein modified and applied much of the research in this field. This begs the question, “how did Einstein contribute to the development and research of quantum mechanics?” Before studying how Einstein’s research contributed to the development of quantum mechanics, it is important to examine the origins of the science itself. Einstein took much of Planck’s experimental “quantum theory” research and applied it in usable ways to existing science. He also greatly contributed to the establishment of the base for quantum mechanics research today. Along with establishing base research in the field, Einstein’s discoveries have been modified and updated to apply to our more advanced understanding of this science today. Einstein greatly contributed to the foundation of quantum mechanics through his research, and his theories and discoveries remain relevant to science even today.
In March, Einstein creates the quantum theory of light, the idea that light exists as tiny packets, or particles, that we now call photons. Alongside Max Planck's work on quanta of heat, and Niels Bohr's later work on quanta of matter, Einstein's work anchors the most shocking idea in twentieth century physics: we live in a quantum universe, one built out of tiny, discrete chunks of energy and matter.
It shows that in this spherical universe one can go straight but never for very long. If you are certain you are going in a straight line think again. But these facts are known, if not by the general public then at least by mathematicians. However Max Born states the theory only holds water if the exact sphere of reference is specified, if nothing is certain then the sphere of reference can never be known to a point where there is no question as to it being perfect, therefore a basic theory of motion is null and void. The statement “nothing can be known with certainty'; holds true to the vast unending universe all the way down to the tinniest subatomic particle. Everything is moving; nothing can be studied to so exactly that there is no question about the object, because the act of studying an object changes the object.
...ational waves some scientists are already on the breakthrough of proving these theories right and hopefully very soon they will be proven. Maybe the one who is reading this will be the one to prove the Big Bang theory, the theory of inflation, and the theory of gravitational waves. For all we know one of the students from our own Alvarado Junior High school that proves these theories that would leave me speechless.
...From the vantage point of the third dimension, we can visualize the different parts of the plain unified into a single picture. Likewise, the vantage of the eleventh dimension, looking down on the tenth dimension. As we see the crazy spread of five superstring theories as if they are different patches of the eleventh dimension.
ABSTRACT: The universe as a whole can be shown to consist of two worlds: the real world and the transcendental world. The real world is a multitude of passing things in a gravitational field: it is the world of nature, every unit of which is born (from the transcendental world), develops, degrades and dies (that is, it returns to the transcendental world). The transcendental world is the world of the integrated, nonpassing, unborn and undying, internally functioning Unity, which is the other side of the real world (so to speak) as roots to a tree and its branches in relation to the surface of the Earth. The fundamental science of the real world is theoretical physics. The transcendental world is also a 'physical' but energyless world. In this paper, I outline characteristics of the real world, and the basic characteristics of the transcendental world which are essential for constructing a theory about the functioning of the cosmological vacuum.