Rydberg atom quantum technologies

被引:229
|
作者
Adams, C. S. [1 ]
Pritchard, J. D. [2 ]
Shaffer, J. P. [3 ]
机构
[1] Univ Durham, Dept Phys, Rochester Bldg,South Rd, Durham DH1 3LE, England
[2] Univ Strathclyde, Dept Phys, John Anderson Bldg,107 Rottenrow East, Glasgow G4 0NG, Lanark, Scotland
[3] Quantum Valley Ideas Labs, 485 West Graham Way, Waterloo, ON N2L 0A7, Canada
基金
美国国家科学基金会; 英国工程与自然科学研究理事会;
关键词
quantum technology; Rydberg atoms; quantum sensing; quantum computing; quantum optics; nonlinear optics; NONLINEAR OPTICS; SINGLE ATOMS; ELECTROMETRY; INFORMATION; COMPUTATION; GATES;
D O I
10.1088/1361-6455/ab52ef
中图分类号
O43 [光学];
学科分类号
070207 ; 0803 ;
摘要
This topical review addresses how Rydberg atoms can serve as building blocks for emerging quantum technologies. Whereas the fabrication of large numbers of artificial quantum systems with the uniformity required for the most attractive applications is difficult if not impossible, atoms provide stable quantum systems which, for the same species and isotope, are all identical. Whilst atomic ground states provide scalable quantum objects, their applications are limited by the range over which their properties can be varied. In contrast, Rydberg atoms offer strong and controllable atomic interactions that can be tuned by selecting states with different principal quantum number or orbital angular momentum. In addition Rydberg atoms are comparatively long-lived, and the large number of available energy levels and their separations allow coupling to electromagnetic fields spanning over 6 orders of magnitude in frequency. These features make Rydberg atoms highly desirable for developing new quantum technologies. After giving a brief introduction to how the properties of Rydberg atoms can be tuned, we give several examples of current areas where the unique advantages of Rydberg atom systems are being exploited to enable new applications in quantum computing, electromagnetic field sensing, and quantum optics.
引用
收藏
页数:13
相关论文
共 50 条
  • [41] Quantum Spin Ice in Three-Dimensional Rydberg Atom Arrays
    Shah, Jeet
    Nambiar, Gautam
    Gorshkov, Alexey, V
    Galitski, Victor
    PHYSICAL REVIEW X, 2025, 15 (01):
  • [42] A randomized measurement toolbox for an interacting Rydberg-atom quantum simulator
    Notarnicola, Simone
    Elben, Andreas
    Lahaye, Thierry
    Browaeys, Antoine
    Montangero, Simone
    Vermersch, Benoit
    NEW JOURNAL OF PHYSICS, 2023, 25 (10):
  • [43] Amorphous quantum magnets in a two-dimensional Rydberg atom array
    Julia-Farre, Sergi
    Vovrosh, Joseph
    Dauphin, Alexandre
    PHYSICAL REVIEW A, 2024, 110 (01)
  • [44] Quantum Defect and the Anticrossings of Diamagnetic Energy Levels of Rydberg Lithium Atom
    刘文瑜
    何兴虹
    李白文
    Progress in Natural Science, 1994, (02) : 120 - 126
  • [45] Quantum analysis of the Rydberg atom cavity detector of dark matter axions
    Yamamoto, K
    Matsuki, S
    NUCLEAR PHYSICS B-PROCEEDINGS SUPPLEMENTS, 1999, 72 : 132 - 136
  • [46] An effective quantum defect theory for the diamagnetic spectrum of a barium Rydberg atom
    Li Bo
    Liu Hong-Ping
    CHINESE PHYSICS B, 2013, 22 (01)
  • [47] THE ORBITALS OF RYDBERG ATOM
    Constantin, D. R.
    Niculescu, V. I. R.
    Mocanu, A. A.
    Pricopi, D.
    Verebelyi-Varga, E.
    ROMANIAN ASTRONOMICAL JOURNAL, 2020, 30 (01): : 37 - 43
  • [48] The kicked Rydberg atom
    Dunning, F
    Lancaster, JC
    Reinhold, CO
    Yoshida, S
    Burgdörfer, J
    ADVANCES IN ATOMIC MOLECULAR AND OPTICAL PHYSICS, VOL 52, 2005, 52 : 49 - 103
  • [49] Artificial Rydberg atom
    Joe, Yong S.
    Mkrtchian, Vanik E.
    Lee, Sun H.
    PHYSICS LETTERS A, 2009, 373 (10) : 976 - 981
  • [50] RYDBERG ATOM MASERS
    HAROCHE, S
    FABRE, C
    GOY, P
    GROSS, M
    MOI, B
    JOURNAL OF THE OPTICAL SOCIETY OF AMERICA, 1980, 70 (06) : 577 - 577