Die einheitliche Beschreibung der fundamentalen Objekte und Wechselwirkungen der Natur in der Quantentheorie der Ur-Alternativen
Martin Immanuel Kober

TL;DR
This paper explores a quantum logical framework based on Ur-alternatives, unifying fundamental interactions, including the standard model and gravity, within a purely quantum theoretical approach that offers new insights into the structure of nature.
Contribution
It introduces a unified quantum logical description of all fundamental objects and interactions, deriving gauge theories and gravity from the concept of Ur-alternatives.
Findings
Representation of structures in symmetric space in 3D real position space
Derivation of Yang-Mills gauge theories and gravity from quantum logical principles
Unification of standard model interactions and gravitation in a single framework
Abstract
In this research work the quantum theory of Ur-alternatives of Carl Friedrich von Weizs\"acker is considered. In This theory all objects and interactions in nature are constituted by abstract purely quantum logical relations in time. Such structures can be devided into binary alternatives, which are called Ur-Alternatives with respect to this principle meaning, and this leads to a tensor space of many Ur-alternatives. The indistinguishability of the Ur-alternatives yields two Hilbert spaces, the tensor space of symmetric and antisymmetric states under permutations of the Ur-alternatives. It is shown how the structures in the symmetric space can be represented in a three dimensional real position space connected to time according to special relativity. Accordingly this theory obtains ultimately a deep understanding of the EPR-paradox, since logic is independent of topological structures…
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Taxonomy
TopicsQuantum Mechanics and Applications · Noncommutative and Quantum Gravity Theories · Philosophy, Science, and History
