Quantum Holography from Fermion Fields

In this paper, we demonstrate, in the context of Loop Quantum Gravity, the Quantum Holographic Principle, according to which the area of the boundary surface enclosing a region of space encodes a qubit per Planck unit. To this aim, we introduce fermion fields in the bulk, whose boundary surface is t...

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Main Author: Paola Zizzi
Format: Article
Language:English
Published: MDPI AG 2021-09-01
Series:Quantum Reports
Subjects:
Online Access:https://www.mdpi.com/2624-960X/3/3/37
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author Paola Zizzi
author_facet Paola Zizzi
author_sort Paola Zizzi
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description In this paper, we demonstrate, in the context of Loop Quantum Gravity, the Quantum Holographic Principle, according to which the area of the boundary surface enclosing a region of space encodes a qubit per Planck unit. To this aim, we introduce fermion fields in the bulk, whose boundary surface is the two-dimensional sphere. The doubling of the fermionic degrees of freedom and the use of the Bogolyubov transformations lead to pairs of the spin network’s edges piercing the boundary surface with double punctures, giving rise to pixels of area encoding a qubit. The proof is also valid in the case of a fuzzy sphere.
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spelling doaj.art-132a1ff56cef4c0d9c5f58ebc12c14c52023-11-22T15:02:03ZengMDPI AGQuantum Reports2624-960X2021-09-013357659110.3390/quantum3030037Quantum Holography from Fermion FieldsPaola Zizzi0Department of Brain and Behavioural Sciences, Pavia University, Piazza Botta 11, 27100 Pavia, ItalyIn this paper, we demonstrate, in the context of Loop Quantum Gravity, the Quantum Holographic Principle, according to which the area of the boundary surface enclosing a region of space encodes a qubit per Planck unit. To this aim, we introduce fermion fields in the bulk, whose boundary surface is the two-dimensional sphere. The doubling of the fermionic degrees of freedom and the use of the Bogolyubov transformations lead to pairs of the spin network’s edges piercing the boundary surface with double punctures, giving rise to pixels of area encoding a qubit. The proof is also valid in the case of a fuzzy sphere.https://www.mdpi.com/2624-960X/3/3/37holographic principlefermionic QFTspin networksfuzzy sphere
spellingShingle Paola Zizzi
Quantum Holography from Fermion Fields
Quantum Reports
holographic principle
fermionic QFT
spin networks
fuzzy sphere
title Quantum Holography from Fermion Fields
title_full Quantum Holography from Fermion Fields
title_fullStr Quantum Holography from Fermion Fields
title_full_unstemmed Quantum Holography from Fermion Fields
title_short Quantum Holography from Fermion Fields
title_sort quantum holography from fermion fields
topic holographic principle
fermionic QFT
spin networks
fuzzy sphere
url https://www.mdpi.com/2624-960X/3/3/37
work_keys_str_mv AT paolazizzi quantumholographyfromfermionfields