Single-atomic-ensemble dual-wavelength optical frequency standard

We demonstrate a dual-wavelength optical frequency standard based on the dual-optical-transition modulation transfer spectroscopy (DOT-MTS) between different quantum transitions of the rubidium D1 (795 nm) and D2 (780 nm) lines. In a single rubidium atomic ensemble, modulation frequency sidebands from the 780 nm pump beam are simultaneously transferred to both the 780 and 795 nm probe lasers. The DOT-MTS enables the simultaneous stabilization of 780 and 795 nm lasers on a single vapor cell. Both lasers exhibit a frequency instability in the low 10 −14 range at 1 s of averaging, as estimated from the residual error signal. A theoretical model is developed based on the V-type atomic level structure to illustrate the dual-wavelength spectroscopy. This approach can be extended to develop a multi-wavelength optical frequency standard within a single atomic ensemble, broadening its applicability in fields such as precision metrology, Rydberg atoms, wavelength standards, optical networks, and beyond.

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Publication Details

Journal
Photonics Research
Published
2025-01-10
DOI
https://doi.org/10.1364/prj.547242
Citations
6
Primary Topic
Advanced Frequency and Time Standards
Type
article
Field-Weighted Citation Impact
7.48
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article

Single-atomic-ensemble dual-wavelength optical frequency standard

Jingbiao Chen, Jie Miao, Duo Pan, Jingming Chen et al.
6 citations
Photonics Research
Advanced Frequency and Time Standards
7.48
article

Single-atomic-ensemble dual-wavelength optical frequency standard

Jingbiao Chen, Jie Miao, Duo Pan, Jingming Chen, Deshui Yu, Qiaohui Yang
article en
6 citations

Abstract

We demonstrate a dual-wavelength optical frequency standard based on the dual-optical-transition modulation transfer spectroscopy (DOT-MTS) between different quantum transitions of the rubidium D1 (795 nm) and D2 (780 nm) lines. In a single rubidium atomic ensemble, modulation frequency sidebands from the 780 nm pump beam are simultaneously transferred to both the 780 and 795 nm probe lasers. The DOT-MTS enables the simultaneous stabilization of 780 and 795 nm lasers on a single vapor cell. Both lasers exhibit a frequency instability in the low 10 −14 range at 1 s of averaging, as estimated from the residual error signal. A theoretical model is developed based on the V-type atomic level structure to illustrate the dual-wavelength spectroscopy. This approach can be extended to develop a multi-wavelength optical frequency standard within a single atomic ensemble, broadening its applicability in fields such as precision metrology, Rydberg atoms, wavelength standards, optical networks, and beyond.

Photonics ResearchVol. 13(3)
Chinese Academy of Sciences (CN)
Openalex Percentile: Top 3%
Advanced Frequency and Time Standards
7.48
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