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CMEQIP TERMINATED

Cavity-mediated entanglement of trapped-ion qubit arrays for quantum information processing

Total Cost €

EC-Contrib. €

Partnership

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CMEQIP project word cloud

Explore the words cloud of the CMEQIP project. It provides you a very rough idea of what is the project "CMEQIP" about.

fidelities platform msca emitted entanglement employs inefficient oxford neutral cavity drive mode preventing mediated group regime operates coherence photonic apparatus reached mit fault times length mediating trap coulomb correction internal fold photons indicate avenue linear long cooperativity space demonstration interactions protocols holds ions nodes chains fidelity atoms entangle arrays trapped pursue attractive benefits separate individual performed spectrum error first spaced techniques tolerant qubit motional ion gates feasible interfaced photon axis vacuum chain 3d vuletic enhanced qubits bus computing sr prof achievable scalability optical gt shared enhancement entangling interface qip modes quantum photonically coupling shown returning crowding zone scaling free crystals gate fellow collective

Project "CMEQIP" data sheet

The following table provides information about the project.

Coordinator	THE CHANCELLOR, MASTERS AND SCHOLARS OF THE UNIVERSITY OF OXFORD Organization address address: WELLINGTON SQUARE UNIVERSITY OFFICES city: OXFORD postcode: OX1 2JD website: www.ox.ac.uk contact info title: n.a. name: n.a. surname: n.a. function: n.a. email: n.a. telephone: n.a. fax: n.a.
Coordinator Country	United Kingdom [UK]
Total cost	269˙857 €
EC max contribution	269˙857 € (100%)
Programme	1. H2020-EU.1.3.2. (Nurturing excellence by means of cross-border and cross-sector mobility)
Code Call	H2020-MSCA-IF-2016
Funding Scheme	MSCA-IF-GF
Starting year	2018
Duration (year-month-day)	from 2018-11-01 to 2021-10-31

Partnership

Take a look of project's partnership.

#	participants	country	role	EC contrib. [€]
1	THE CHANCELLOR, MASTERS AND SCHOLARS OF THE UNIVERSITY OF OXFORD THE CHANCELLOR, MASTERS AND SCHOLARS OF THE UNIVERSITY OF OXFORD Organization address address: WELLINGTON SQUARE UNIVERSITY OFFICES city: OXFORD postcode: OX1 2JD website: www.ox.ac.uk contact info title: n.a. name: n.a. surname: n.a. function: n.a. email: n.a. telephone: n.a. fax: n.a.	UK (OXFORD)	coordinator	269˙857.00
2	MASSACHUSETTS INSTITUTE OF TECHNOLOGY MASSACHUSETTS INSTITUTE OF TECHNOLOGY Organization address address: MASSACHUSETTS AVENUE 77 city: CAMBRIDGE postcode: 2139 website: n.a. contact info title: n.a. name: n.a. surname: n.a. function: n.a. email: n.a. telephone: n.a. fax: n.a.	US (CAMBRIDGE)	partner	0.00

Map

Project objective

Long-coherence times, high-fidelity individual-ion control and entanglement-mediating Coulomb interactions make trapped-ion qubits a very attractive platform for quantum information processing (QIP). Entangling gates performed by coupling the internal states of ions in the same potential well via their shared motional mode have recently reached the high fidelities necessary for the implementation of quantum error correction protocols which can enable fault-tolerant QIP. However, scaling this type of gate up to long ion chains (>20 ions) is not feasible: large ion numbers lead to crowding of the motional mode spectrum of the chain, eventually preventing addressing of specific modes. Cavity-mediated ion-photon coupling is a promising avenue to scalability. Photons emitted into a shared cavity mode can be used as a quantum bus to entangle short ion arrays. If implemented between arrays of N ions, this photonic interface benefits from an N-fold enhancement of the ion-photon coupling. Strong collective coupling has been shown with neutral atoms and 3D ion crystals, but has not been performed in a system with individual-qubit control and Coulomb-mediated entanglement capabilities. Prof.Vuletic’s MIT group operates a multi-zone ion trap which holds several linear ion arrays (of up to 20 ions each) spaced along the trap axis and features an integrated optical cavity. Cooperativity measurements indicate that the strong-coupling regime should be achievable with this apparatus for cavity-mediated entanglement of arrays as short as 5 ions in length. As an MSCA fellow, I will use this trap to pursue the first demonstration of cavity-mediated entanglement of two spatially separate ion arrays. On returning to Oxford, I will implement cavity-enhanced ion-photon coupling between Sr ions in separate vacuum systems, as part of Oxford's drive to build photonically-interfaced quantum computing nodes, which currently employs inefficient free-space ion-photon coupling techniques.

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