Efficient Quantum Algorithms for GHZ and W States, and Implementation on the IBM Quantum Computer

Efficient deterministic algorithms are proposed with logarithmic step complexities for the generation of entangled GHZN and WN states useful for quantum networks, and an implementation on the IBM quantum computer up to N=16 is demonstrated. Improved quality is then investigated using full quantum to...

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Veröffentlicht in:Advanced quantum technologies (Online) 2019-06, Vol.2 (5-6), p.n/a
Hauptverfasser: Cruz, Diogo, Fournier, Romain, Gremion, Fabien, Jeannerot, Alix, Komagata, Kenichi, Tosic, Tara, Thiesbrummel, Jarla, Chan, Chun Lam, Macris, Nicolas, Dupertuis, Marc‐André, Javerzac‐Galy, Clément
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container_title Advanced quantum technologies (Online)
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creator Cruz, Diogo
Fournier, Romain
Gremion, Fabien
Jeannerot, Alix
Komagata, Kenichi
Tosic, Tara
Thiesbrummel, Jarla
Chan, Chun Lam
Macris, Nicolas
Dupertuis, Marc‐André
Javerzac‐Galy, Clément
description Efficient deterministic algorithms are proposed with logarithmic step complexities for the generation of entangled GHZN and WN states useful for quantum networks, and an implementation on the IBM quantum computer up to N=16 is demonstrated. Improved quality is then investigated using full quantum tomography for low‐N GHZ and W states. This is completed by parity oscillations and histogram distance for large‐N GHZ and W states, respectively. Robust states are built with about twice the number of quantum bits which were previously achieved. Entangled GHZN and WN quantum states can be efficiently and deterministically generated on the IBM quantum computer with 16 qbits up to N=16. The proposed scheme features logarithmic step complexities. Resulting improved quality is then characterized using full quantum tomography for low‐ N, while parity oscillations and histogram distance are used for large N values.
doi_str_mv 10.1002/qute.201900015
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subjects efficient algorithm
GHZ states
multipartite entanglement
quantum computer
quantum networks
title Efficient Quantum Algorithms for GHZ and W States, and Implementation on the IBM Quantum Computer
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