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

Low-frequency vacuum squeezing in Rb vapor

Eugeniy E. Mikhailov, Irina V. Novikova

Published May 28, 2008• 0 citations
OpenAlex

Related papers

Generation of vacuum squeezing fields via self-roration in Rb vapor

Kebei Jiang, R. Singh, Petr M. Anisimov

Bulletin of the American Physical Society•Oct 22, 2010•0 citations

Generation, manipulations and applications of squeezed vacuum in optically dense Rb vapor

Irina V. Novikova

Bulletin of the American Physical Society•Nov 21, 2013•0 citations

Generation and spatial mode optimization of squeezed vacuum field in hot Rb vapor

M. Zhang, Melissa A. Guidry, R. Nicholas Lanning +4 more

Bulletin of the American Physical Society•Mar 17, 2017•0 citations

Generation and multi-pass propagation of a squeezed vacuum field in hot Rb vapor

M. Zhang, R. Nicholas Lanning, Zhihao Xiao +3 more

Bulletin of the American Physical Society•Mar 18, 2016•0 citations

All-atomic generation and noise-quadrature filtering of squeezed vacuum in hot Rb vapor

Travis Horrom, Gleb Romanov, Irina Novikova +1 more

With our all-atomic squeezing and filtering setup, we demonstrate control over the noise amplitudes and manipulation of the frequency-dependent squeezing angle of a squeezed vacuum quantum state by passing it through an atomic medium with electromagnetically induced transparency (EIT). We generate low sideband frequency squeezed vacuum using the polarization self-rotation effect in a hot Rb vapor cell, and direct it through a second atomic vapor subject to EIT conditions. We use the frequency-dependent absorption of the EIT window to demonstrate an example of squeeze amplitude attenuation and squeeze angle rotation of the quantum noise quadratures of the squeezed probe. These studies have implications for quantum memory and storage as well as gravitational wave interferometric detectors.

arXiv:1204.3967•Journal of Modern Optics•Oct 16, 2012•9 citations

All atomic generation and manipulation of squeezed vacuum in hot Rb vapor

Travis Horrom, G. Romanov, Irina V. Novikova +1 more

We demonstrate a possibility to control the noise spectrum of squeezed vacuum by passing it through Rb vapor under EIT conditions. For this experiment, we generate low sideband frequency (1kHz-2MHz) squeezed vacuum using polarization self-rotation. As an example, we compare the quadrature noise levels to theoretical predictions and observe ‘EIT filtering’ of the noise due to the finite width of the EIT resonance. This work may lead to the development of a low-cost compact squeezing source for applications in gravitational wave interferometers and continuous-variable quantum memory systems.

Frontiers in Optics•Jan 1, 2011•0 citations
With our all-atomic squeezing and filtering setup, we demonstrate control over the noise amplitudes and manipulation of the frequency-dependent squeezing angle of a squeezed vacuum quantum state by passing it through an atomic medium with electromagnetically induced transparency (EIT). We generate low sideband frequency squeezed vacuum using the polarization self-rotation effect in a hot Rb vapor cell, and direct it through a second atomic vapor subject to EIT conditions. We use the frequency-dependent absorption of the EIT window to demonstrate an example of squeeze amplitude attenuation and squeeze angle rotation of the quantum noise quadratures of the squeezed probe. These studies have implications for quantum memory and storage as well as gravitational wave interferometric detectors.
We demonstrate a possibility to control the noise spectrum of squeezed vacuum by passing it through Rb vapor under EIT conditions. For this experiment, we generate low sideband frequency (1kHz-2MHz) squeezed vacuum using polarization self-rotation. As an example, we compare the quadrature noise levels to theoretical predictions and observe ‘EIT filtering’ of the noise due to the finite width of the EIT resonance. This work may lead to the development of a low-cost compact squeezing source for applications in gravitational wave interferometers and continuous-variable quantum memory systems.