Semiotic analysis of the observer in relativity, quantum mechanics, and a possible theory of everything

Semiotica ◽  
2015 ◽  
Vol 2015 (205) ◽  
pp. 149-167
Author(s):  
Vern S. Poythress

AbstractSemiotic analysis of the role of the observer in the theory of relativity and in quantum mechanics shows the semiotic function of basic symmetries, such as symmetries under translation and rotation. How can semiotics be relevant to theories in physics? It is always human beings who form the theories. In the process of theory formation and communication, they rely on semiotic systems. Included among these systems is the semiotics involved in our pre-theoretical human understanding of space, time, and motion. Semiotic systems thereby have an influence on theories in physics. As a result, key concepts in fundamental physical theory have affinities with semiotics. In terms of Kenneth Pike’s tagmemic theory, applied as a theory of theories, all symmetries take the form of distributional constraints. The additional symmetry under Lorentz transformations introduced by the special theory of relativity fits into the same pattern. In addition, constraints introduced by the addition of general relativity suggest the form and limitations that might be taken by a “theory of everything” encompassing general relativity and quantum field theory.

2021 ◽  
Vol 58 (4) ◽  
pp. 175-195
Author(s):  
Vladimir P. Vizgin ◽  

The article is based on the concepts of epistemic virtues and epistemic vices and explores A. Einstein’s contribution to the creation of fundamental physical theories, namely the special theory of relativity and general theory of relativity, as well as to the development of a unified field theory on the basis of the geometric field program, which never led to success. Among the main epistemic virtues that led Einstein to success in the construction of the special theory of relativity are the following: a unique physical intuition based on the method of thought experiment and the need for an experimental justification of space-time concepts; striving for simplicity and elegance of theory; scientific courage, rebelliousness, signifying the readiness to engage in confrontation with scientific conventional dogmas and authorities. In the creation of general theory of relativity, another intellectual virtue was added to these virtues: the belief in the heuristic power of the mathematical aspect of physics. At the same time, he had to overcome his initial underestimation of the H. Minkowski’s four-dimensional concept of space and time, which has manifested in a distinctive flexibility of thinking typical for Einstein in his early years. The creative role of Einstein’s mistakes on the way to general relativity was emphasized. These mistakes were mostly related to the difficulties of harmonizing the mathematical and physical aspects of theory, less so to epistemic vices. The ambivalence of the concept of epistemic virtues, which can be transformed into epistemic vices, is noted. This transformation happened in the second half of Einstein’s life, when he for more than thirty years unsuccessfully tried to build a unified geometric field theory and to find an alternative to quantum mechanics with their probabilistic and Copenhagen interpretation In this case, we can talk about the following epistemic vices: the revaluation of mathematical aspect and underestimation of experimentally – empirical aspect of the theory; adopting the concepts general relativity is based on (continualism, classical causality, geometric nature of fundamental interactions) as fundamental; unprecedented persistence in defending the GFP (geometrical field program), despite its failures, and a certain loss of the flexibility of thinking. A cosmological history that is associated both with the application of GTR (general theory of relativity) to the structure of the Universe, and with the missed possibility of discovering the theory of the expanding Universe is intermediate in relation to Einstein’s epistemic virtues and vices. This opportunity was realized by A.A. Friedmann, who defeated Einstein in the dispute about if the Universe was stationary or nonstationary. In this dispute some of Einstein’s vices were revealed, which Friedman did not have. The connection between epistemic virtues and the methodological principles of physics and also with the “fallibilist” concept of scientific knowledge development has been noted.


2019 ◽  
Vol 2 (2) ◽  

Not only universe, but everything has general characters as eternal, infinite, cyclic and wave-particle duality. Everything from elementary particles to celestial bodies, from electromagnetic wave to gravity is in eternal motions, which dissects only to circle. Since everything is described only by trigonometry. Without trigonometry and mathematical circle, the science cannot indicate all the beauty of harmonic universe. Other method may be very good, but it is not perfect. Some part is very nice, another part is problematic. General Theory of Relativity holds that gravity is geometric. Quantum Mechanics describes all particles by wave function of trigonometry. In this paper using trigonometry, particularly mathematics circle, a possible version of the unification of partial theories, evolution history and structure of expanding universe, and the parallel universes are shown.


2018 ◽  
Author(s):  
Mihir Kumar Jha

Theory of everything (T.O.E), final theory or ultimate theory is a theoretical framework in the field of physics, which holds an ultimate key to unify all the fundamental forces of nature in a single field. In other words such theory can glue quantum mechanics with general relativity into a single framework. Many theories have been postulated over the decades but the dominant one includes string theory and loop quantum gravity. In this paper I would like to present a new framework which can unify quantum mechanics with general relativity by showing that the change in Riemannian metric or the bend in space time is always an integral multiple of planks constant and since gravity is the result due to bend in space-time, gravity itself is a discrete force


Author(s):  
James T. Cushing

Electric charges interact via the electric and magnetic fields they produce. Electrodynamics is the study of the laws governing these interactions. The phenomena of electricity and of magnetism were once taken to constitute separate subjects. By the beginning of the nineteenth century they were recognized as closely related topics and by the end of that century electromagnetic phenomena had been unified with those of optics. Classical electrodynamics provided the foundation for the special theory of relativity, and its unification with the principles of quantum mechanics has led to modern quantum field theory, arguably our most fundamental physical theory to date.


Conceptus ◽  
2008 ◽  
Vol 37 (92) ◽  
Author(s):  
Friedel Weinert

SummaryThe aim of this paper is to infer conclusions about the temporality of the physical world from central features of the measurement of time. In order to do so it makes a distinction between the passage of time and the measurement of the passage of time. Whilst the passage of time can be experienced on the basis of, say, chaotic processes, the measurement of the passage of time requires certain physical regularities. But regularity is not sufficient and it is important to highlight the connection between time, regularity and invariance in the measurement of time, especially with respect to classical physics, the Special theory of relativity and quantum mechanics. It is only after this connection has been clarified that the paper considers the dispute on whether the physical world is static or dynamic. As there are clearly both time-symmetric physical laws and time-asymmetric physical processes, the question is empirically underdetermined because the evidence is at present compatible with two incompatible views about the temporality of the physical world.


2021 ◽  
Vol 10 (3) ◽  
Author(s):  
John Hodge

The Special Theory of Relativity applies where gravitation is insignificant. There are many observations that remain poorly explained by the standard models of either the big of cosmology or the small of Quantum mechanics. The strength of the Scalar Theory Of Everything (STOE) is its ability to describe an extremely wide range of observations and to predict observations. Each of the STOE axioms has been used in the development of models of observations in the big and the small. The axioms that replace Special Relativity are: (1) Time is an abstraction of the duration between events causing events. (2) The diameter of the hods is the same throughout the universe. (3) The distance between hods is related to plenum density. Higher reduces the distance between hods. (4) The speed of photons and hods (light) is the greatest of any matter in a given environment. (5) The speed of the plenum wave is much faster than the speed of the hods. The STOE passes the tests of Special Relativity and does much more. The STOE is a major paradigm shift.


Author(s):  
Hanoch Gutfreund ◽  
Jürgen Renn

This section discusses the development of Albert Einstein's ideas and attitudes as he struggled for eight years to come up with a general theory of relativity that would meet the physical and mathematical requirements laid down at the outset. It first considers Einstein's work on gravitation in Prague before analyzing three documents that played a significant role in his search for a theory of general relativity: the Zurich Notebook, the Einstein–Grossmann Entwurf paper, and the Einstein–Besso manuscript. It then looks at Einstein's completion of his general theory of relativity in Berlin in November 1915, along with his development of a new theory of gravitation within the framework of the special theory of relativity. It also examines the formulation of the basic idea that Einstein termed the “equivalence principle,” his Entwurf theory vs. David Hilbert's theory, and the 1916 manuscript of Einstein's work on the general theory of relativity.


2021 ◽  
Author(s):  
Sangwha Yi

Schrodinger equation is a wave equation. Wave function uses as a probability amplitude in quantum mechanics. We make Schrodinger equation from Klein-Gordon free particle’s wave function in cosmological special theory of relativity.


1989 ◽  
Vol 04 (18) ◽  
pp. 4643-4733
Author(s):  
TA-YOU WU

We attempt to review the development of physics in its historical order: classical dynamics; optics and electromagnetic theory followed naturally by the special theory of relativity; the general theory of relativity; from another direction, the kinetic theory of gases, thermodynamics and statistical mechanics which led to the discovery of the quantum theory; atomic physics that led to quantum mechanics; the theoretical and experimental studies of elementary particle physics. Some efforts were made to bring out the basic concepts in these theories and their changes, namely, the abandoning of the absolute time and simultaneity, simultaneous exact knowledge of position and momentum of a particle and determinism of Newtonian physics in the relativity theory and quantum mechanics; the concept of quantized field and unified fields. The interplay between experiments and theories in the development of physics was summarized by a table at the end of the article.


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