91̽»¨

Skip to main content
Department Of Physics text logo
  • Research
    • Our research
    • Our research groups
    • Our research in action
    • Research funding 91̽»¨
    • Summer internships for undergraduates
  • Study
    • Undergraduates
    • Postgraduates
  • Engage
    • For alumni
    • For business
    • For schools
    • For the public
  • Support
91̽»¨
Single trapped ion

Single trapped ion

Credit: David Nadlinger

David Lucas

Professor of Physics

Sub department

  • Atomic and Laser Physics

Research groups

  • Ion trap quantum computing
David.Lucas@physics.ox.ac.uk
Telephone: 01865 (2)72384,01865 (2)72346
Clarendon Laboratory, room -170,-172,-171,316.6
  • About
  • Publications

Robust and fast microwave-driven quantum logic for trapped-ion qubits

Physical Review A American Physical Society (APS) 110:1 (2024) l010601

Authors:

Ma Weber, Mf Gely, Rk Hanley, Tp Harty, Ad Leu, Cm Löschnauer, Dp Nadlinger, Dm Lucas

Distributed Quantum Computing across an Optical Network Link

(2024)

Authors:

D Main, P Drmota, DP Nadlinger, EM Ainley, A Agrawal, BC Nichol, R Srinivas, G Araneda, DM Lucas

Experimental Quantum Advantage in the Odd-Cycle Game

(2024)

Authors:

P Drmota, D Main, EM Ainley, A Agrawal, G Araneda, DP Nadlinger, BC Nichol, R Srinivas, A Cabello, DM Lucas

Verifiable blind quantum computing with trapped ions and single photons

Physical Review Letters American Physical Society 132:15 (2024) 150604

Authors:

P Drmota, Dp Nadlinger, D Main, Bc Nichol, Em Ainley, D Leichtle, A Mantri, E Kashefi, R Srinivas, G Araneda, Cj Ballance, Dm Lucas

Abstract:

We report the first hybrid matter-photon implementation of verifiable blind quantum computing. We use a trapped-ion quantum server and a client-side photonic detection system networked via a fiber-optic quantum link. The availability of memory qubits and deterministic entangling gates enables interactive protocols without postselection—key requirements for any scalable blind server, which previous realizations could not provide. We quantify the privacy at ≲0.03 leaked classical bits per qubit. This experiment demonstrates a path to fully verified quantum computing in the cloud.

Squeezing, trisqueezing, and quadsqueezing in a spin-oscillator system

(2024)

Authors:

O Băzăvan, S Saner, DJ Webb, EM Ainley, P Drmota, DP Nadlinger, G Araneda, DM Lucas, CJ Ballance, R Srinivas

Pagination

  • First page First
  • Previous page Prev
  • Page 1
  • Page 2
  • Current page 3
  • Page 4
  • Page 5
  • Page 6
  • Page 7
  • Page 8
  • Page 9
  • …
  • Next page Next
  • Last page Last

Footer 91̽»¨

  • Contact us
  • Giving to the Dept of Physics
  • Work with us
  • Media

User account menu

  • Log in

Follow us

FIND US

Clarendon Laboratory,

Parks Road,

91̽»¨,

OX1 3PU

CONTACT US

Tel: +44(0)1865272200

Department Of Physics text logo

© 91̽»¨ - Department of Physics

Cookies | Privacy policy | Accessibility statement

  • Home
  • Research
  • Study
  • Engage
  • Our people
  • News & Comment
  • Events
  • Our facilities & services
  • About us
  • Giving to Physics