Quantum communications and quantum metrology in the spacetime of a rotating planet

We study how quantum systems that propagate in the spacetime of a rotating planet are affected by the curved background. Spacetime curvature affects wavepackets of photons propagating from Earth to a satellite, and the changes in the wavepacket encode the parameters of the spacetime. This allows us...

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Main Authors: Kohlrus, Jan, Bruschi, David Edward, Louko, Jorma, Fuentes, Ivette
Format: Article
Published: EDP Sciences/Springer 2017
Subjects:
Online Access:https://eprints.nottingham.ac.uk/44713/
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author Kohlrus, Jan
Bruschi, David Edward
Louko, Jorma
Fuentes, Ivette
author_facet Kohlrus, Jan
Bruschi, David Edward
Louko, Jorma
Fuentes, Ivette
author_sort Kohlrus, Jan
building Nottingham Research Data Repository
collection Online Access
description We study how quantum systems that propagate in the spacetime of a rotating planet are affected by the curved background. Spacetime curvature affects wavepackets of photons propagating from Earth to a satellite, and the changes in the wavepacket encode the parameters of the spacetime. This allows us to evaluate quantitatively how quantum communications are affected by the curved spacetime background of the Earth and to achieve precise measurements of Earth’s Schwarzschild radius and equatorial angular velocity. We then provide a comparison with the state of the art in parameter estimation obtained through classical means. Satellite to satellite communications and future directions are also discussed.
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institution University of Nottingham Malaysia Campus
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publishDate 2017
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spelling nottingham-447132020-05-04T18:42:22Z https://eprints.nottingham.ac.uk/44713/ Quantum communications and quantum metrology in the spacetime of a rotating planet Kohlrus, Jan Bruschi, David Edward Louko, Jorma Fuentes, Ivette We study how quantum systems that propagate in the spacetime of a rotating planet are affected by the curved background. Spacetime curvature affects wavepackets of photons propagating from Earth to a satellite, and the changes in the wavepacket encode the parameters of the spacetime. This allows us to evaluate quantitatively how quantum communications are affected by the curved spacetime background of the Earth and to achieve precise measurements of Earth’s Schwarzschild radius and equatorial angular velocity. We then provide a comparison with the state of the art in parameter estimation obtained through classical means. Satellite to satellite communications and future directions are also discussed. EDP Sciences/Springer 2017-04-20 Article PeerReviewed Kohlrus, Jan, Bruschi, David Edward, Louko, Jorma and Fuentes, Ivette (2017) Quantum communications and quantum metrology in the spacetime of a rotating planet. EPJ Quantum Technology, 4 . 7/1-7/13. ISSN 2196-0763 Satellite communications; Quantum metrology; Kerr spacetime https://doi.org/10.1140/epjqt/s40507-017-0061-0 doi:10.1140/epjqt/s40507-017-0061-0 doi:10.1140/epjqt/s40507-017-0061-0
spellingShingle Satellite communications; Quantum metrology; Kerr spacetime
Kohlrus, Jan
Bruschi, David Edward
Louko, Jorma
Fuentes, Ivette
Quantum communications and quantum metrology in the spacetime of a rotating planet
title Quantum communications and quantum metrology in the spacetime of a rotating planet
title_full Quantum communications and quantum metrology in the spacetime of a rotating planet
title_fullStr Quantum communications and quantum metrology in the spacetime of a rotating planet
title_full_unstemmed Quantum communications and quantum metrology in the spacetime of a rotating planet
title_short Quantum communications and quantum metrology in the spacetime of a rotating planet
title_sort quantum communications and quantum metrology in the spacetime of a rotating planet
topic Satellite communications; Quantum metrology; Kerr spacetime
url https://eprints.nottingham.ac.uk/44713/
https://eprints.nottingham.ac.uk/44713/
https://eprints.nottingham.ac.uk/44713/