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Playing "Game of Digits" - Building a Toy Universe Based on the Natural Universe By Using Mathematics and Theoretical Computer Science

Authors: Bartlett, Rodney;

Playing "Game of Digits" - Building a Toy Universe Based on the Natural Universe By Using Mathematics and Theoretical Computer Science

Abstract

Abstract Each section of this article was previously shared in preprints during recent years (e.g. references 25, 26) though the five sections have never been joined before. The greatest obstacles to understanding the cosmos, and beginning the journey to the union of quantum mechanics with General Relativity (quantum gravity), will be a) the human reluctance to accept a paradigm shift to determinism (see "Conclusion"), and b) the human timidness resulting in the inability to be able to seriously consider the universe being generated by innumerable centuries of progress in computer / holographic science; and actually being constructed of mathematics. This article begins with “vector-tensor-scalar geometry” interacting photons and gravitons to produce the quantum spins of matter particles, the Higgs boson, plus the particles of the weak and strong nuclear forces. It then proposes the universe uses base-2 mathematics (a.k.a. electronics’ binary digits), the topology of Mobius strips and figure-8 Klein bottles, plus the geometry mentioned before, to produce photons and still hypothetical gravitons and non-hypothetical mass. It’s then proposed that the three-dimensional figure-8 Klein bottles composing the universe possess space-time's four dimensions (3 of space + 1 of time) when Wick rotation is programmed into them. This programming is adaptive, depending on the strength of gravity and electromagnetism (in Special Relativity, time slows in intense gravity and on approaching the speed of light). Because of the rotating between the x- and y-axes in Wick rotation, there’s a space-time we call imaginary or higher dimensional that is just as real as ordinary space-time. Gravity also leads to mass here - “dark” matter - and that matter’s associated “dark” energy. Use of so-called "imaginary” time and quantum mechanics’ entanglement removes boundaries between the “imaginary” and known realities. Boundaries between the simulated universe and this known universe are removed by the imaginary’s affecting virtual reality to produce an augmented reality. Keywords Computer-generated universe, Mathematical universe, Simulation, Entanglement, Relativity, Augmented reality Introduction WORMHOLES AND WARP SPEED The introduction’s objective is to lead-in to the building of a toy universe based on the natural universe by using mathematics (geometry and topology without any algebra or equations) and theoretical computer science. It does this by speaking of wormholes and their use in interstellar/intergalactic travel. Such travel is not confined to the future simulation. Use of virtual reality, augmented reality, so-called "imaginary” time and quantum mechanics’ entanglement shows, in section 4, that boundaries between the simulation and this known universe are removed. (continued)

A superficial understanding of my paper gives the impression that it's more about physics and cosmology than computer science. Such superficiality misses the opportunity to understand that computer science can actually reveal new insights into physics and cosmology, and even how they originated. My submission has already been rejected by a journal supposedly dedicated to theoretical computer science. Submitting to another journal is a waste of time since they'd also say it's outside their scope. This whole business makes me think all of today's journals would unanimously reject relativity and quantum mechanics. Fortunately for us, editors of the early 20th century did publish those theories. Where are the editors of 100 years ago when the world needs them?

Keywords

Computer-generated universe, Mathematical universe, Simulation, Entanglement, Relativity, Augmented reality

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This indicator reflects the "current" impact/attention (the "hype") of an article in the research community at large, based on the underlying citation network.
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