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<p>Optical nanofibers provide a versatile platform for exploring strong light–matter interactions at the single-quantum level, a central goal of quantum optics. Their subwavelength diameter supports tightly confined guided modes with strong evanescent fields, enabling efficient coupling between photons and nearby atoms. By incorporating fiber Bragg gratings, nanofibers can form fully fiber-integrated high-finesse cavities, combining strong atom–photon coupling with efficient and low-loss optical input–output interfacing in the setting of cavity quantum electrodynamics (QED). In parallel, nanofiber systems naturally realize waveguide QED, where atoms interact strongly with propagating photons in a one-dimensional geometry. In this review, we introduce the underlying physical principles, summarize key experimental techniques and representative phenomena, and discuss prospects for applications in quantum information processing, quantum networks, and related quantum technologies.</p> Graphical abstract <p></p>

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Cavity and waveguide quantum electrodynamics with atoms and optical nanofibers

  • 期刊论文

  • 出版模式：

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  • 发表日期：

    2026年7月28日

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  • Karen E. Webb,
  • Samuel K. Ruddell,
  • Tim Keller,
  • Jameesh Keloth,
  • Ratnesh K. Gupta,
  • Mitsuyoshi Takahata,
  • Takao Aoki

摘要

Optical nanofibers provide a versatile platform for exploring strong light–matter interactions at the single-quantum level, a central goal of quantum optics. Their subwavelength diameter supports tightly confined guided modes with strong evanescent fields, enabling efficient coupling between photons and nearby atoms. By incorporating fiber Bragg gratings, nanofibers can form fully fiber-integrated high-finesse cavities, combining strong atom–photon coupling with efficient and low-loss optical input–output interfacing in the setting of cavity quantum electrodynamics (QED). In parallel, nanofiber systems naturally realize waveguide QED, where atoms interact strongly with propagating photons in a one-dimensional geometry. In this review, we introduce the underlying physical principles, summarize key experimental techniques and representative phenomena, and discuss prospects for applications in quantum information processing, quantum networks, and related quantum technologies.

Graphical abstract