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Scalable local addressing of atomic qubits using integrated photonics

ORAL

Abstract

Quantum computers based on neutral-atom qubits have emerged as promising architectures for scalable quantum computing. As the number of qubits and circuit depth grow, these optically addressed systems demand scalable and precise control solutions across multiple independent degrees of freedom in the addressing field. Here, we demonstrate a local addressing system for neutral-atom quantum computers using integrated photonics. Our multi-channel photonic integrated circuit (PIC) features high-power, high-speed switching with high extinction ratios across the visible to near-infrared spectrum. We describe our atomic-photonic integration approach and discuss the scale-up of photonic control for large-scale quantum systems.

Presenters

  • Robert J DeAngelo

    QuEra Computing Inc.

Authors

  • Noel Wan

    QuEra Computing Inc.

  • Mengdi Zhao

    QuEra Computing Inc.

  • Anshuman Singh

    QuEra Computing Inc.

  • Robert J DeAngelo

    QuEra Computing Inc.

  • Henry Thoreen

    QuEra Computing Inc.

  • Manuj Singh

    QuEra Computing Inc.

  • Daniel Dominguez

    Sandia National Laboratories

  • Andrew Leenheer

    Sandia National Laboratories

  • Ramon Szmuk

    Q.M Technologies Ltd. (Quantum Machines)

  • Yoav Romach

    Q.M Technologies Ltd. (Quantum Machines)

  • Yonatan Cohen

    Q.M Technologies Ltd. (Quantum Machines)

  • Matt Eichenfield

    Sandia National Laboratories

  • Dirk R Englund

    Columbia University, Massachusetts Institute of Technology, MIT

  • Nathan Gemelke

    QuEra Computing Inc.