Relativity as a Consequence of Quantum Entanglement: A Quantum Logic Gate Space Model for the Universe
John S. Hamel

TL;DR
This paper proposes a quantum logic gate model of the universe where all entities are reversible Toffoli gates, explaining relativity, quantum phenomena, and cosmological mysteries through entanglement and information swapping.
Contribution
It introduces a novel quantum gate space model where space, matter, and light are represented by Toffoli gates, deriving physical laws from quantum entanglement and information exchange.
Findings
Derives Heisenberg Uncertainty Principle from quantum gate interactions.
Explains Lorentz transformations via quantum information swapping.
Provides a framework for dark matter, anti-matter, and inflation phenomena.
Abstract
Everything in the Universe is assumed to be compromised of pure reversible quantum Toffoli gates, including empty space itself. Empty space can be configured into photon or matter gates simply by swapping logic input information with these entities through the phenomenon of quantum mechanical entanglement between photons and empty space Toffoli gates. The essential difference between empty space, photons and matter gates are the logic input values of their respective Toffoli gates. Empty space is characterized by an inability for the logic inputs to influence the internal logic state of its Toffoli gates since the control lines are set to logic 0. Photons and matter are characterized by Toffoli gates where the control lines are set to logic 1 enabling their logic inputs to control their internal logic states allowing for their interaction according to the laws of physics associated with…
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Taxonomy
TopicsQuantum Mechanics and Applications · Noncommutative and Quantum Gravity Theories · Quantum Computing Algorithms and Architecture
