Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Bulletin of the American Physical Society

Miniature, Monolithic Ultra High Vacuum Cells for BEC Applications

Sterling E. McBride, Joey Michalchuk, Dana Anderson, Evan Tareq Salim, Kai Hudek

Published May 27, 2010• 0 citations
OpenAlex

Related papers

Portable Atom Chip Vacuum Cell for Rapid BEC Production

Matthew B. Squires, Evan A. Salim, William F. Holmgren +5 more

Bulletin of the American Physical Society•Jun 8, 2007•1 citation

Ultra-High Vacuum Cells Realized by Miniature Ion Pump Using High-Efficiency Plasma Source

Yuichi Kurashima, Atsuhiko Maeda, Naoto Oshima +4 more

In recent years, there has been significant interest in quantum technology, characterized by the emergence of quantum computers boasting immense processing power, ultra-sensitive quantum sensors, and ultra-precise atomic clocks. Miniaturization of quantum devices using cold atoms necessitates the employment of an ultra-high vacuum miniature cell with a pressure of approximately 10−6 Pa or even lower. In this study, we developed an ultra-high vacuum cell realized by a miniature ion pump using a high-efficiency plasma source. Initially, an unsealed miniature ion pump was introduced into a vacuum chamber, after which the ion pump’s discharge current, depending on vacuum pressures, was evaluated. Subsequently, a miniature vacuum cell was fabricated by hermetically sealing the miniature vacuum pump. The cell was successfully evacuated by a miniature ion pump down to an ultra-high vacuum region, which was derived by the measured discharge current. Our findings demonstrate the feasibility of achieving an ultra-high vacuum cell necessary for the operation of miniature quantum devices.

Sensors•Jun 20, 2024•4 citations

Thick-film technology for ultra high vacuum interfaces of micro-structured traps

Delia Kaufmann, Thomas Collath, M. Tanveer Baig +4 more

arXiv:1107.4082•Applied Physics B•Mar 20, 2012•17 citations

Ultranarrow Linewidth and Stable Photonic-Atomic Laser

Liron Stern, W. Zhang, David R. Carlson +5 more

We report a miniaturized photonic-atomic laser, comprising a monolithic ultra-high-Q Fabry-Perot cavity integrated with a micromachined rubidium vapor cell. Leveraging the frequency-stability of the cavity and the atoms, we realize an atomic stable ultranarrow-linewidth laser.

Frontiers in Optics•Jan 1, 2019•2 citations

Laser cooling in a chip-scale platform

J. P. McGilligan, K. R. Moore, A. Dellis +7 more

Chip-scale atomic devices built around micro-fabricated alkali vapor cells are at the forefront of compact metrology and atomic sensors. We demonstrate a micro-fabricated vapor cell that is actively pumped to ultra-high-vacuum (UHV) to achieve laser cooling. A grating magneto-optical trap (GMOT) is incorporated with a 4 mm-thick Si/glass vacuum cell to demonstrate the feasibility of a fully miniaturized laser cooling platform. A two-step optical excitation process in rubidium is used to overcome surface-scatter limitations to the GMOT imaging. The unambiguous miniaturization and form-customizability made available with micro-fabricated UHV cells provide a promising platform for future compact cold-atom sensors.

arXiv:2005.05818•Applied Physics Letters•Aug 3, 2020•61 citations

Towards BEC with permanent magnetic microstructures

S. Whitlock, A. I. Sidorov, Wang, J. +2 more

•Jan 1, 2003•0 citations
In recent years, there has been significant interest in quantum technology, characterized by the emergence of quantum computers boasting immense processing power, ultra-sensitive quantum sensors, and ultra-precise atomic clocks. Miniaturization of quantum devices using cold atoms necessitates the employment of an ultra-high vacuum miniature cell with a pressure of approximately 10−6 Pa or even lower. In this study, we developed an ultra-high vacuum cell realized by a miniature ion pump using a high-efficiency plasma source. Initially, an unsealed miniature ion pump was introduced into a vacuum chamber, after which the ion pump’s discharge current, depending on vacuum pressures, was evaluated. Subsequently, a miniature vacuum cell was fabricated by hermetically sealing the miniature vacuum pump. The cell was successfully evacuated by a miniature ion pump down to an ultra-high vacuum region, which was derived by the measured discharge current. Our findings demonstrate the feasibility of achieving an ultra-high vacuum cell necessary for the operation of miniature quantum devices.
Chip-scale atomic devices built around micro-fabricated alkali vapor cells are at the forefront of compact metrology and atomic sensors. We demonstrate a micro-fabricated vapor cell that is actively pumped to ultra-high-vacuum (UHV) to achieve laser cooling. A grating magneto-optical trap (GMOT) is incorporated with a 4 mm-thick Si/glass vacuum cell to demonstrate the feasibility of a fully miniaturized laser cooling platform. A two-step optical excitation process in rubidium is used to overcome surface-scatter limitations to the GMOT imaging. The unambiguous miniaturization and form-customizability made available with micro-fabricated UHV cells provide a promising platform for future compact cold-atom sensors.