Building logical qubits in a superconducting quantum computing system

被引:0
|
作者
Jay M. Gambetta
Jerry M. Chow
Matthias Steffen
机构
[1] IBM T.J. Watson Research Center,
来源
npj Quantum Information | / 3卷
关键词
D O I
暂无
中图分类号
学科分类号
摘要
The technological world is in the midst of a quantum computing and quantum information revolution. Since Richard Feynman’s famous ‘plenty of room at the bottom’ lecture (Feynman, Engineering and Science23, 22 (1960)), hinting at the notion of novel devices employing quantum mechanics, the quantum information community has taken gigantic strides in understanding the potential applications of a quantum computer and laid the foundational requirements for building one. We believe that the next significant step will be to demonstrate a quantum memory, in which a system of interacting qubits stores an encoded logical qubit state longer than the incorporated parts. Here, we describe the important route towards a logical memory with superconducting qubits, employing a rotated version of the surface code. The current status of technology with regards to interconnected superconducting-qubit networks will be described and near-term areas of focus to improve devices will be identified. Overall, the progress in this exciting field has been astounding, but we are at an important turning point, where it will be critical to incorporate engineering solutions with quantum architectural considerations, laying the foundation towards scalable fault-tolerant quantum computers in the near future.
引用
收藏
相关论文
共 50 条
  • [21] Quantum trajectories of superconducting qubits
    Weber, Steven J.
    Murch, Kater W.
    Kimchi-Schwartz, Mollie E.
    Roch, Nicolas
    Siddiqi, Irfan
    COMPTES RENDUS PHYSIQUE, 2016, 17 (07) : 766 - 777
  • [22] Quantum acoustics with superconducting qubits
    Chu, Yiwen
    Kharel, Prashanta
    Renninger, William H.
    Burkhart, Luke D.
    Frunzio, Luigi
    Rakich, Peter T.
    Schoelkopf, Robert J.
    SCIENCE, 2017, 358 (6360) : 199 - 202
  • [23] QUANTUM STATE TOMOGRAPHY AND QUANTUM LOGICAL OPERATIONS IN A THREE QUBITS NMR QUADRUPOLAR SYSTEM
    Araujo-Ferreira, A. G.
    Brasil, C. A.
    Soares-Pinto, D. O.
    Deazevedo, E. R.
    Bonagamba, T. J.
    Teles, J.
    INTERNATIONAL JOURNAL OF QUANTUM INFORMATION, 2012, 10 (02)
  • [24] Tunable coupling between three qubits as a building block for a superconducting quantum computer
    Groszkowski, Peter
    Fowler, Austin G.
    Motzoi, Felix
    Wilhelm, Frank K.
    PHYSICAL REVIEW B, 2011, 84 (14)
  • [25] QUANTUM COMPUTING Silicon qubits
    Maragkou, Maria
    NATURE MATERIALS, 2015, 14 (05) : 468 - 468
  • [26] Virtualized Logical Qubits: A 2.5D Architecture for Error-Corrected Quantum Computing
    Duckering, Casey
    Baker, Jonathan M.
    Schuster, David, I
    Chong, Frederic T.
    2020 53RD ANNUAL IEEE/ACM INTERNATIONAL SYMPOSIUM ON MICROARCHITECTURE (MICRO 2020), 2020, : 173 - 185
  • [27] Controlled Quantum Dialogue Based on Logical Qubits
    Huang, Hong-Mei
    INNOVATIVE MOBILE AND INTERNET SERVICES IN UBIQUITOUS COMPUTING, IMIS-2019, 2020, 994 : 682 - 690
  • [28] Quantum processor integrates 48 logical qubits
    Jarman, Sam
    PHYSICS WORLD, 2024, 37 (02)
  • [29] Multilayered logical qubits and synthesized quantum bits
    Jin, Ki-Sung
    Cha, Gyu-Il
    QUANTUM SCIENCE AND TECHNOLOGY, 2023, 8 (03)
  • [30] Quantum control of superconducting phase qubits
    Johnson, PR
    Strauch, FW
    Dragt, AJ
    Anderson, JR
    Lobb, CJ
    Wellstood, FC
    QUANTUM INFORMATION AND COMPUTATION II, 2004, 5436 : 232 - 241