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

High-Q Bulk Acoustic Quartz Resonators and Application to Hybrid Quantum Systems

Michael Edmund Tobar, Maxim Goryachev, Daniel Lloyd Creedon, Serge Galliou

Published Mar 7, 2014• 0 citations
OpenAlex

Related papers

Quantum measurements of a thin-film bulk acoustic resonator using a superconducting qubit

Ming-Han Chou, Étienne Dumur, Youpeng Zhong +8 more

Bulletin of the American Physical Society•Mar 16, 2021•0 citations

Creation and control of multi-phonon Fock states in a bulk acoustic-wave resonator

Yiwen Chu, Prashanta Kharel, Taekwan Yoon +3 more

arXiv:1804.07426•Nature•Nov 1, 2018•308 citations

Quantum control of high overtone bulk acoustic phonons

Mikael Kervinen

•Jan 1, 2020•0 citations

Complete quantum toolbox for an acoustic resonator

Matthijs H. J. de Jong, Laure Mercier de Lépinay

Nature Physics•Jul 1, 2024•1 citation

Extremely low-loss acoustic phonons in a quartz bulk acoustic wave resonator at millikelvin temperature

Maxim Goryachev, Daniel Lloyd Creedon, Eugene N. Ivanov +3 more

Low-loss, high frequency acoustic resonators cooled to millikelvin temperatures are a topic of great interest for application to hybrid quantum systems. When cooled to 20 mK, we show that resonant acoustic phonon modes in a bulk acoustic wave quartz resonator demonstrate exceptionally low loss (with Q-factors of order billions) at frequencies of 15.6 and 65.4 MHz, with a maximum f · Q product of 7.8 × 1016 Hz. Given this result, we show that the Q-factor in such devices near the quantum ground state can be four orders of magnitude better than previously attained. Such resonators possess the low losses crucial for electromagnetic cooling to the phonon ground state, and the possibility of long coherence and interaction times of a few seconds, allowing multiple quantum gate operations.

arXiv:1202.4556•Applied Physics Letters•Jun 11, 2012•82 citations

Extremely high Q-factor mechanical modes in quartz bulk acoustic wave resonators at millikelvin temperature

Maxim Goryachev, Daniel Lloyd Creedon, Eugene N. Ivanov +3 more

We demonstrate that Bulk Acoustic Wave (BAW) quartz resonator cooled down to millikelvin temperatures are excellent building blocks for hybrid quantum systems with extremely long coherence times. Two overtones of the longitudinal mode at frequencies of 15.6 and 65.4 MHz demonstrate a maximum f.Q product of 7.8×1016 Hz. With this result, the Q-factor in such devices near the quantum ground state can be four orders of magnitude better than previously attained in other mechanical systems. Tested quartz resonators possess the ultra low acoustic losses crucial for electromagnetic cooling to the phonon ground state.

AIP conference proceedings•Jan 1, 2014•2 citations
Low-loss, high frequency acoustic resonators cooled to millikelvin temperatures are a topic of great interest for application to hybrid quantum systems. When cooled to 20 mK, we show that resonant acoustic phonon modes in a bulk acoustic wave quartz resonator demonstrate exceptionally low loss (with Q-factors of order billions) at frequencies of 15.6 and 65.4 MHz, with a maximum f · Q product of 7.8 × 1016 Hz. Given this result, we show that the Q-factor in such devices near the quantum ground state can be four orders of magnitude better than previously attained. Such resonators possess the low losses crucial for electromagnetic cooling to the phonon ground state, and the possibility of long coherence and interaction times of a few seconds, allowing multiple quantum gate operations.
We demonstrate that Bulk Acoustic Wave (BAW) quartz resonator cooled down to millikelvin temperatures are excellent building blocks for hybrid quantum systems with extremely long coherence times. Two overtones of the longitudinal mode at frequencies of 15.6 and 65.4 MHz demonstrate a maximum f.Q product of 7.8×1016 Hz. With this result, the Q-factor in such devices near the quantum ground state can be four orders of magnitude better than previously attained in other mechanical systems. Tested quartz resonators possess the ultra low acoustic losses crucial for electromagnetic cooling to the phonon ground state.