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An additive-manufactured microwave cavity for a compact cold-atom clock

Auteur(s)
Batori, Etienne 
Institut de physique 
Alan Bregazzi
Ben Lewis
Paul F. Griffin
Erling Riis
Mileti, Gaetano 
Institut de physique 
Affolderbach, Christoph 
Institut de physique 
Date de parution
2023
In
Journal of Applied Physics
Vol.
133
No
22
Résumé
We present an additive-manufactured microwave cavity for a Ramsey-type, double resonance, compact cold-atom clock. Atoms can be laser cooled inside the cavity using a grating magneto-optic trap with the cavity providing an excellent TE011-like mode while maintaining sufficient optical access for atomic detection. The cavity features a low Q-factor of 360 which conveniently reduces the cavity pulling of the future clock. Despite the potential porosity of the additive-manufacturing process, we demonstrate that the cavity is well-suited for vacuum. A preliminary clock setup using cold atoms allows for measuring the Zeeman spectrum and Rabi oscillations in the cavity which enables us to infer excellent field uniformity and homogeneity, respectively, across the volume accessed by the cold atoms. Ramsey spectroscopy is demonstrated, indicating that the cavity is suitable for clock applications. Finally, we discuss the limitations of the future clock.
Identifiants
https://libra.unine.ch/handle/123456789/32181
_
10.1063/5.0151207
Type de publication
journal article
Dossier(s) à télécharger
 main article: 224401_1_5.0151207.pdf (1.9 MB)
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