Faraday Laser with Cavity Mode Locked for Optical Pumped Rubidium Atomic Clock
Tianyu Liu, Xiaolei Guan, Dayong Chen, Jianxiang Wang, Duo Pan, Jingbiao Chen
Abstract
Tianyu Liu, Xiaolei Guan, Dayong Chen, Jianxiang Wang, Duo Pan, Jingbiao Chen
Abstract
We measure the light shift of the rubidium atomic clock under interaction of a 780 nm laser, which has potential application in the laser power stabilization. At the same time, in order to improve the performance of rubidium clock, we demonstrate a Faraday laser of which the cavity mode is locked to the peak of the transition spectrum, thus suppressing the otherwise existed power and frequency noise caused by the cavity mode fluctuations. This Faraday laser is suitable for the optical pumped rubidium atomic clock with the frequency being stably on resonance with the rubidium 780nm transition, and has potential applications on the cesium beam clocks and fountain clocks.
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We measure the light shift of the rubidium atomic clock under interaction of a 780 nm laser, which has potential application in the laser power stabilization. At the same time, in order to improve the performance of rubidium clock, we demonstrate a Faraday laser of which the cavity mode is locked to the peak of the transition spectrum, thus suppressing the otherwise existed power and frequency noise caused by the cavity mode fluctuations. This Faraday laser is suitable for the optical pumped rubidium atomic clock with the frequency being stably on resonance with the rubidium 780nm transition, and has potential applications on the cesium beam clocks and fountain clocks.
Key concepts: Rubidium, Atomic clock, Laser, Faraday cage, Caesium, Optical pumping, Laser power scaling, Optics