Quantum Optics with Cold Atoms: Interfaces, Integration, and Applications

A Special Issue of Optics (ISSN 2673-3269).

Deadline for manuscript submissions: 20 December 2026 | Viewed by 1113

Editors


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Guest Editor
Shaanxi Key Laboratory for Theoretical Physics Frontiers, Institute of Modern Physics, Northwest University, Xi’an 710127, China
Interests: dynamics of topological excitations in quantum gases; quantum droplets; quantum integrable systems

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Guest Editor
Shaanxi Province Key Laboratory of Quantum Information and Quantum Optoelectronic Devices, School of Physics, Xi'an Jiaotong University, Xi'an 710049, China
Interests: quantum information based on cold atoms; optical field manipulation; the interaction between light and atoms

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Guest Editor
Department of Physics and Zhejiang Key Laboratory of Quantum State Control and Optical Field Manipulation, Zhejiang Sci-Tech University, Hangzhou 310018, China
Interests: quantum gas and quantum magnetism theory; macroscopic quantum effects in molecular magnets; the integrability and correlated critical properties of cold atomic gases

Special Issue Information

Dear Colleagues,

Quantum optics with cold atoms is an interdisciplinary frontier that merges the coherent control of light with quantum properties of ultracold atomic ensembles and single trapped particles. This field utilizes harnesses monochromatic laser light and engineered photonic structures to cool, trap, and manipulate atoms at microkelvin temperatures, enabling exquisitely precise light–matter interfaces at the quantum limit. The integration of cold atoms with chip-scale photonic circuits, nanophotonic waveguides, and microfabricated vapor cells is driving a transformation from complex, table-top optical systems toward compact, robust, and scalable hybrid quantum platforms. These developments underpin a new generation of quantum technologies covering chip-scale atomic clocks, cold-atom interferometers for inertial sensing, on-chip quantum memories for optical networks, and large-scale neutral atom arrays for quantum simulation and computation.

This Special Issue will compile original research articles, short communications, and comprehensive reviews focusing on recent progress at the intersection of integrated quantum optics and ultracold atomic physics. We welcome contributions addressing waveguide and cavity quantum electrodynamics with atomic ensembles, chip-scale magneto-optical traps and vapor cells, atomtronic circuit, hybrid atom–photon interfaces, and the application of these platforms in quantum sensing, metrology, communication, and simulation. Topics of interest also include theoretical frameworks for collective light–matter interactions, fabrication techniques for atom-compatible photonics, and pathways toward the commercialization and field deployment of cold-atom quantum technologies.

Prof. Dr. Tao Yang
Prof. Dr. Hong Gao
Prof. Dr. Yun-Bo Zhang
Guest Editors

Manuscript Submission Information

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Keywords

  • quantum optics
  • cold atoms
  • light–matter interfaces
  • hybrid photonic integration
  • chip-scale quantum technologies

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Published Papers (1 paper)

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Research

15 pages, 850 KB  
Article
Observation and Control of Sharp Many-Body Localization in Cold-Atom Optical Lattices
by Xingbo Wei and Xuewei Zuo
Optics 2026, 7(4), 46; https://doi.org/10.3390/opt7040046 - 30 Jun 2026
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Abstract
We investigate the localization transition in a one-dimensional extended Aubry–André–Harper (AAH) model, emphasizing its implementation as a quantum simulator in ultracold atomic optical lattices. In the single-particle case, quasi-periodic hopping modulation allows the localization transition point to be clearly observed even for small [...] Read more.
We investigate the localization transition in a one-dimensional extended Aubry–André–Harper (AAH) model, emphasizing its implementation as a quantum simulator in ultracold atomic optical lattices. In the single-particle case, quasi-periodic hopping modulation allows the localization transition point to be clearly observed even for small system sizes. By driving the system into strongly Anderson localized states immediately after the transition, we observe a sharp many-body localization (MBL) transition upon introducing interactions, with the MBL transition point closely approaching that of Anderson localization. To demonstrate the effects of interactions, we map out a global phase diagram and find that critical states in this model are easily thermalized. Contrary to previous studies where enhanced interactions significantly promoted thermalization, we find that increasing interactions does not notably shift the MBL transition point. Importantly, our setup offers a practical and experimentally accessible platform for studying sharp MBL transitions using ultracold atoms in optical lattices, bridging MBL physics with advances in quantum optics and cold-atom technologies. Full article
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