Wafer-level filling of microfabricated atomic vapor cells based on thin-film deposition and photolysis of cesium azide

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Abstract

The thin-film deposition and photodecomposition of cesium azide are demonstrated and used to fill arrays of miniaturized atomic resonance cells with cesium and nitrogen buffer gas for chip-scale atomic-based instruments. Arrays of silicon cells are batch fabricated on wafers into which cesium azide is deposited by vacuum thermal evaporation. After vacuum sealing, the cells are irradiated with ultraviolet radiation, causing the azide to photodissociate into pure cesium and nitrogen in situ. This technology integrates the vapor-cell fabrication and filling procedures into one continuous and wafer-level parallel process, and results in cells that are optically transparent and chemically pure. © 2007 American Institute of Physics.

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Liew, L. A., Moreland, J., & Gerginov, V. (2007). Wafer-level filling of microfabricated atomic vapor cells based on thin-film deposition and photolysis of cesium azide. Applied Physics Letters, 90(11). https://doi.org/10.1063/1.2712501

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