Laser & Optoelectronics Progress, Volume. 62, Issue 5, 0530003(2025)
Spectroscopy Technique for Hyperfine Energy Level Transition of Atomic Excited States
Fig. 1. Relevant hyperfine transitions of 133Cs 6S1/2 → 6P3/2 → 6D5/2 → 7P3/2 → 6S1/2 atomic system
Fig. 3. Typical AESVFD signal of atomic excited state 6P3/2→6D5/2 obtained by detecting 456 nm fluorescence
Fig. 4. Comparision of AESVFD under CTP experimental configuration with different polarization combinations of two pump lights
Fig. 6. Variation of AESVFD amplitude and linewidth with (a) 852 nm laser power and (b) 917 nm laser power
Fig. 8. Changes of AESVFD signals versus the frequency detuning of 852 nm pump laser (OODR spectra is as the frequency scale). Frequency of 852 nm pump laser is resonant on (a) 6S1/2F=4 → 6P3/2F'=5, (b) F=4→F'=4, and (c) F=4 → F'=3 transitions, respectively
Get Citation
Copy Citation Text
Lanlan Zheng, Baodong Yang, Junli Bai, Haitao Zhou. Spectroscopy Technique for Hyperfine Energy Level Transition of Atomic Excited States[J]. Laser & Optoelectronics Progress, 2025, 62(5): 0530003
Category: Spectroscopy
Received: Jul. 2, 2024
Accepted: Aug. 29, 2024
Published Online: Mar. 10, 2025
The Author Email: Yang Baodong (ybd@sxu.edu.cn)