Entanglement—A Higher Order Symmetry

Can we accurately model the spin state of a quantum particle? If so, we should be able to make identical copies of such a state and also obtain its mirror image. In quantum mechanics, many subatomic particles can form entangled pairs that are mirror images of each other, although the state of an ind...

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Main Author: Paul O’Hara
Format: Article
Language:English
Published: MDPI AG 2023-02-01
Series:Physical Sciences Forum
Subjects:
Online Access:https://www.mdpi.com/2673-9984/7/1/4
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author Paul O’Hara
author_facet Paul O’Hara
author_sort Paul O’Hara
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description Can we accurately model the spin state of a quantum particle? If so, we should be able to make identical copies of such a state and also obtain its mirror image. In quantum mechanics, many subatomic particles can form entangled pairs that are mirror images of each other, although the state of an individual particle cannot be duplicated or cloned as experimentally demonstrated by Aspect, Clauser and Zeilinger, the winners of the Nobel Prize in Physics 2022. We show that there is a higher-order symmetry associated with the SL(2,C) group that underlies the singlet state, which means that the singlet pairing preserves Lorentz transformations independently of the metric used. The Pauli exclusion principle can be derived from this symmetry.
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spelling doaj.art-e0b5c63da07b474db043dcd9f97b12ff2023-11-18T12:20:11ZengMDPI AGPhysical Sciences Forum2673-99842023-02-0171410.3390/ECU2023-14011Entanglement—A Higher Order SymmetryPaul O’Hara0Ontology and Scientific Reasoning, Istituto Universitario Sophia, 50064 Figline e Incisa Valdarno, FI, ItalyCan we accurately model the spin state of a quantum particle? If so, we should be able to make identical copies of such a state and also obtain its mirror image. In quantum mechanics, many subatomic particles can form entangled pairs that are mirror images of each other, although the state of an individual particle cannot be duplicated or cloned as experimentally demonstrated by Aspect, Clauser and Zeilinger, the winners of the Nobel Prize in Physics 2022. We show that there is a higher-order symmetry associated with the SL(2,C) group that underlies the singlet state, which means that the singlet pairing preserves Lorentz transformations independently of the metric used. The Pauli exclusion principle can be derived from this symmetry.https://www.mdpi.com/2673-9984/7/1/4entanglementcoupling principlerotational invariancemicro-causalityFermi-Dirac statisticsquantum gravity
spellingShingle Paul O’Hara
Entanglement—A Higher Order Symmetry
Physical Sciences Forum
entanglement
coupling principle
rotational invariance
micro-causality
Fermi-Dirac statistics
quantum gravity
title Entanglement—A Higher Order Symmetry
title_full Entanglement—A Higher Order Symmetry
title_fullStr Entanglement—A Higher Order Symmetry
title_full_unstemmed Entanglement—A Higher Order Symmetry
title_short Entanglement—A Higher Order Symmetry
title_sort entanglement a higher order symmetry
topic entanglement
coupling principle
rotational invariance
micro-causality
Fermi-Dirac statistics
quantum gravity
url https://www.mdpi.com/2673-9984/7/1/4
work_keys_str_mv AT paulohara entanglementahigherordersymmetry