- 【Updated on May 12, 2025】 Integration of CiNii Dissertations and CiNii Books into CiNii Research
- Trial version of CiNii Research Knowledge Graph Search feature is available on CiNii Labs
- Suspension and deletion of data provided by Nikkei BP
- Regarding the recording of “Research Data” and “Evidence Data”
Temperature and wall coating dependence of alkali vapor transport speed in micron-scale capillaries
-
- Matthieu Giraud-Carrier
- Brigham Young University Electrical Engineering, , 459 Clyde Building Provo, Utah 84602
-
- Trevor Decker
- Brigham Young University Electrical Engineering, , 459 Clyde Building Provo, Utah 84602
-
- Joshua McClellan
- Brigham Young University Electrical Engineering, , 459 Clyde Building Provo, Utah 84602
-
- Linsey Bennett
- Brigham Young University Electrical Engineering, , 459 Clyde Building Provo, Utah 84602
-
- Aaron Hawkins
- Brigham Young University Electrical Engineering, , 459 Clyde Building Provo, Utah 84602
-
- Jennifer Black
- University of California School of Engineering, , Santa Cruz, 1156 High Street Santa Cruz, California 95064
-
- Soren Almquist
- University of California School of Engineering, , Santa Cruz, 1156 High Street Santa Cruz, California 95064
-
- Holger Schmidt
- University of California School of Engineering, , Santa Cruz, 1156 High Street Santa Cruz, California 95064
Search this article
Description
<jats:p>The impact of storage temperature and wall coatings on alkali vapor transport through micron-scale glass capillaries is analyzed. Glass microbore tubing, chromatography vials, and copper tubing are assembled into closed atomic spectroscopy units with varying capillary lengths and inner diameters. Such devices serve as valuable test models for integrated atomic spectroscopy platforms that rely on hollow-core optical waveguides for chip-scale implementation of quantum coherence phenomena such as slow and stopped light. The inside surface of the systems are coated with dimethyldichlorosilane (DMDCS) after which the system is loaded with rubidium vapor and hermetically sealed. The loaded units are stored in a tube furnace at elevated temperatures and tested daily for absorption over several weeks. Both a wall coating of DMDCS and higher storage temperature increases the transport speed of Rb vapor. The limits and implications of these results are discussed and compared to an expected theoretical model. Suggestions for increasing transport speed are given.</jats:p>
Journal
-
- Journal of Vacuum Science & Technology A: Vacuum, Surfaces, and Films
-
Journal of Vacuum Science & Technology A: Vacuum, Surfaces, and Films 35 (3), 031602-, 2017-03-20
American Vacuum Society
- Tweet
Details 詳細情報について
-
- CRID
- 1363951794625299968
-
- ISSN
- 15208559
- 07342101
-
- Data Source
-
- Crossref