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<p>Quantum information processing platforms based on array of matter qubits, such as neutral atoms, trapped ions, and quantum dots, face significant challenges in scalable addressing and readout as system sizes increase. Here, we propose the “Volcano” architecture that establishes a new quantum processing unit implementation method based on optical channel mapping on an arbitrarily arranged static qubit array. To support the feasibility of Volcano architecture, we show a proof-of-principle demonstration by employing a photonic chip that leverages custom-designed three-dimensional waveguide structures to transform one-dimensional beam arrays into arbitrary two-dimensional output patterns matching qubit array geometries. We demonstrate parallel and independent control of 49-channel system with negligible crosstalk and high uniformity. This architecture addresses the challenges in scaling up quantum processors, including both the classical link for parallel qubit control and the quantum link for efficient photon collection, and holds the potential for interfacing with neutral atom arrays and trapped ion crystals, as well as networking of heterogeneous quantum systems.</p>

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Volcano architecture for scalable quantum processor units

  • 期刊论文

  • 发表日期：

    2025年10月24日

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  • Dong-Qi Ma,
  • Qing-Xuan Jie,
  • Ya-Dong Hu,
  • Wen-Yi Zhu,
  • Yi-Chen Zhang,
  • Hong-Jie Fan,
  • Xiao-Kang Zhong,
  • Guang-Jie Chen,
  • Yan-Lei Zhang,
  • Tian-Yang Zhang,
  • Xi-Feng Ren,
  • Liang Chen,
  • Zhu-Bo Wang,
  • Guang-Can Guo,
  • Chang-Ling Zou

摘要

Quantum information processing platforms based on array of matter qubits, such as neutral atoms, trapped ions, and quantum dots, face significant challenges in scalable addressing and readout as system sizes increase. Here, we propose the “Volcano” architecture that establishes a new quantum processing unit implementation method based on optical channel mapping on an arbitrarily arranged static qubit array. To support the feasibility of Volcano architecture, we show a proof-of-principle demonstration by employing a photonic chip that leverages custom-designed three-dimensional waveguide structures to transform one-dimensional beam arrays into arbitrary two-dimensional output patterns matching qubit array geometries. We demonstrate parallel and independent control of 49-channel system with negligible crosstalk and high uniformity. This architecture addresses the challenges in scaling up quantum processors, including both the classical link for parallel qubit control and the quantum link for efficient photon collection, and holds the potential for interfacing with neutral atom arrays and trapped ion crystals, as well as networking of heterogeneous quantum systems.