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

Optics Letters

Two-dimensional image storage in a hybrid opto-electromechanical system based on optomechanically induced transparency

Yunting Wang, Li-Guo Qin, liteng chen, Jie-Hui Huang, Tong Qiu, NanRun Zhou, Shang‐Qing Gong

Published May 20, 2026• 0 citations
Publisher

Abstract

We propose a scheme for two-dimensional image storage based on optomechanically induced transparency in a hybrid opto-electromechanical system comprising a cavity optomechanical system and a tunable capacitor. This scheme is a fully opto-electromechanical two-dimensional image storage mechanism that is independent of atomic ensembles. The charged mechanical oscillator serves as the coupling interface between these two subsystems. Analytical and numerical results show that the optomechanical coupling strength in the cavity optomechanical system significantly influences the storage performance of two-dimensional images. When the optomechanical coupling strength is fixed, the storage efficiency can be further improved and optimized by modulating the external voltage applied to the capacitor. The proposed scheme holds promise for applications in two-dimensional image information storage and high-fidelity quantum storage in quantum information processing.

DOI
10.1364/ol.603651

Related papers

Image storage in a hybrid opto-electro-mechanical-atomic system

Yifan Xie, Li‐Guo Qin, Jie-Hui Huang +4 more

In this paper, we theoretically propose a hybrid opto-electro-mechanical-atomic system for image storage. Based on an electromagnetically induced transparency (EIT) scheme, the N-type cold atomic ensemble captured in an optomechanical cavity is used as the storage medium of a two-dimensional image. The results show that the storage process can be modulated through the cavity optomechanical field. It was found that the resolution of reconstructed images can be significantly enhanced by fine-tuning the effective coupling strength between the cavity field and the atomic system. Numerical simulations have revealed that this effective coupling strength is influenced by both frequency detuning and external voltage in our model. Therefore, we can optimize image clarity by adjusting these parameters. This hybrid system merges atomic technology with an opto-electro-mechanical framework, enabling image storage and laying the groundwork for future developments in electrically controlled storage and enhanced quantum storage fidelity.

Journal of the Optical Society of America B•Sep 8, 2025•1 citation

Enhanced multicolor optomechanically induced transparency in electro-optical hybrid system

Guixia Pan, Ruijie Xiao, Chengbo Zhai

Abstract We investigate the tunable multicolor optomechanically induced transparency through electro-optical hybrid system. The system consists an optical cavity fulled with three-level atomic ensemble and two charged mechanical oscillators coupled via Coulomb interaction. Under different coupling strengths, the system can exhibit the phenomena of optomechanical induced transparency increase. Specifically, the number of the transparency windows increases with the presence of charged mechanical resonators and atoms. Furthermore, the induced transparency phenomena are strongly manipulated by the coupling strength between the optical mode and the mechanical mode, or between the optical mode and the atoms and the Rabi frequency, or between the Coulomb coupling between the two charged mechanical modes. It is found that the larger coupling strength between the cavity field and the atoms and the mechanical oscillator, the wider transparent windows. Our approach is feasible for storage of light and has potential applications in quantum information processing.

Laser Physics•May 23, 2022•1 citation

Electrically controlled optical switch in the hybrid opto-electromechanical system *

Li‐Guo Qin, Zhongyang Wang, Hongyang Ma +2 more

To promote the future quantum information technologies, we demonstrate an electrically driven optical switch based on quantum interference in a hybrid opto-electromechanical system, which consists of an opto-mechanical cavity and an external electric circuit. The key element of our scheme is a moveable mirror of cavity as a charged mechanical oscillator capacitively coupled to a fixed charged plate in a variable capacitor. By adjusting the voltage of the capacitor, the displacement of the moveable mirror is modulated, then the cavity field can be electrically turned on or off due to the detuning of the cavity. Based on the cavity induced transparency, the transparency window can be electrically switched on or off by turning on or off the cavity field. Therefore, the susceptibility of the medium in the cavity can be electrically controlled, i.e., the scheme of the electrically controlled absorption switching can be demonstrated. This electrically driven optical switch will excite a development trend and implementation prospect towards the integration and miniaturization of quantum module device in a chip.

Chinese Physics B•Dec 1, 2017•5 citations

Optomechanical entanglement switch in the hybrid opto-electromechanical device

Li‐Guo Qin, Zhongyang Wang, Hongyang Ma +4 more

To promote the future quantum network, we demonstrate an electrically controlled optomechanical entanglement switch in a hybrid opto-electromechanical device, which consists of an opto-mechanical cavity capacitively coupling a variable capacitor, where a nanomechanical oscillator acts as an interface between the cavity and capacitor. In the device, the effective quality and detuning of the cavity can be adjusted by the voltage on the capacitor. Based on the sensitivity of the entanglement to the effective cavity detuning, by changing the voltage, the optomechanical entanglement can be electrically turned on or off. This integrated structure of entanglement switch will excite a development trend and implementation prospect toward integration and miniaturization of quantum module devices in the future quantum network.

Journal of the Optical Society of America B•May 21, 2019•6 citations

Optomechanically induced transparency in a multi-cavity system subjected to two-level atomic ensemble interference

Gongtao Yu, Guixia Pan

Abstract We investigate a hybrid multi-cavity optomechanical system with interference from a two-level atomic ensemble. The system is composed of three optical cavities and two nanomechanical resonators. A two-level atomic ensemble is filled into the middle optical cavity. The optical cavity located in the middle has two interaction forces with the two outermost optical cavities. What is more, the system also includes various types of interaction relations, which are the couplings of optical cavities with mechanical resonators and the coupling of optical cavity with two-level atomic ensemble. In order to study the optical response of optomechanically induced transparency, we modulate the interaction intensity within the system to obtain different eletromagnetic induced transparent phenomena. It has been found that under the influence of different parameters, the number of transparent windows and the width of transparent windows increase with an increase in the coupling of the optical cavities with atomic ensemble. In addition, as the system parameters change, the transparency points also move. The position of the two outermost transparent points becomes farther apart when the coupling of optical cavity with mechanical resonators increases. Our approach provides a great flexibility for controlling electromagnetically induced transparency. It will have the great potential applications for quantum information processing.

Quantum Information Processing•Dec 12, 2024•4 citations

Multiple optomechanically induced transparency and slow/fast light in a multicavity system with two-level atoms

Tianyu Zhou, Guixia Pan

Abstract We investigate the phenomenon of optomechanically induced transparency assisted by a hybrid two-cavity optomechanical system. The system consists of two optical cavities and four mechanical resonators, and each optical cavity is filled with two-level atomic ensembles. Our study demonstrates that the characteristics of optomechanically induced transparency vary with different coupling parameters. Specifically, the number of transparent windows increases with the introduction of atomic ensembles and Coulomb interaction. Furthermore, the positions of the transparent points can be manipulated by the coupling parameters. It is found that increasing the Coulomb coupling between mechanical oscillators shifts the transparent points further apart. Furthermore, we also explore the slow/fast light effect by analyzing the phase and group delay of the probe field. Our approach enables the control of multiple optomechanically induced transparency and provides potential applications in quantum information processing.

Laser Physics•Feb 16, 2026•0 citations
We propose a scheme for two-dimensional image storage based on optomechanically induced transparency in a hybrid opto-electromechanical system comprising a cavity optomechanical system and a tunable capacitor. This scheme is a fully opto-electromechanical two-dimensional image storage mechanism that is independent of atomic ensembles. The charged mechanical oscillator serves as the coupling interface between these two subsystems. Analytical and numerical results show that the optomechanical coupling strength in the cavity optomechanical system significantly influences the storage performance of two-dimensional images. When the optomechanical coupling strength is fixed, the storage efficiency can be further improved and optimized by modulating the external voltage applied to the capacitor. The proposed scheme holds promise for applications in two-dimensional image information storage and high-fidelity quantum storage in quantum information processing.
In this paper, we theoretically propose a hybrid opto-electro-mechanical-atomic system for image storage. Based on an electromagnetically induced transparency (EIT) scheme, the N-type cold atomic ensemble captured in an optomechanical cavity is used as the storage medium of a two-dimensional image. The results show that the storage process can be modulated through the cavity optomechanical field. It was found that the resolution of reconstructed images can be significantly enhanced by fine-tuning the effective coupling strength between the cavity field and the atomic system. Numerical simulations have revealed that this effective coupling strength is influenced by both frequency detuning and external voltage in our model. Therefore, we can optimize image clarity by adjusting these parameters. This hybrid system merges atomic technology with an opto-electro-mechanical framework, enabling image storage and laying the groundwork for future developments in electrically controlled storage and enhanced quantum storage fidelity.
Abstract We investigate the tunable multicolor optomechanically induced transparency through electro-optical hybrid system. The system consists an optical cavity fulled with three-level atomic ensemble and two charged mechanical oscillators coupled via Coulomb interaction. Under different coupling strengths, the system can exhibit the phenomena of optomechanical induced transparency increase. Specifically, the number of the transparency windows increases with the presence of charged mechanical resonators and atoms. Furthermore, the induced transparency phenomena are strongly manipulated by the coupling strength between the optical mode and the mechanical mode, or between the optical mode and the atoms and the Rabi frequency, or between the Coulomb coupling between the two charged mechanical modes. It is found that the larger coupling strength between the cavity field and the atoms and the mechanical oscillator, the wider transparent windows. Our approach is feasible for storage of light and has potential applications in quantum information processing.
To promote the future quantum information technologies, we demonstrate an electrically driven optical switch based on quantum interference in a hybrid opto-electromechanical system, which consists of an opto-mechanical cavity and an external electric circuit. The key element of our scheme is a moveable mirror of cavity as a charged mechanical oscillator capacitively coupled to a fixed charged plate in a variable capacitor. By adjusting the voltage of the capacitor, the displacement of the moveable mirror is modulated, then the cavity field can be electrically turned on or off due to the detuning of the cavity. Based on the cavity induced transparency, the transparency window can be electrically switched on or off by turning on or off the cavity field. Therefore, the susceptibility of the medium in the cavity can be electrically controlled, i.e., the scheme of the electrically controlled absorption switching can be demonstrated. This electrically driven optical switch will excite a development trend and implementation prospect towards the integration and miniaturization of quantum module device in a chip.
To promote the future quantum network, we demonstrate an electrically controlled optomechanical entanglement switch in a hybrid opto-electromechanical device, which consists of an opto-mechanical cavity capacitively coupling a variable capacitor, where a nanomechanical oscillator acts as an interface between the cavity and capacitor. In the device, the effective quality and detuning of the cavity can be adjusted by the voltage on the capacitor. Based on the sensitivity of the entanglement to the effective cavity detuning, by changing the voltage, the optomechanical entanglement can be electrically turned on or off. This integrated structure of entanglement switch will excite a development trend and implementation prospect toward integration and miniaturization of quantum module devices in the future quantum network.
Abstract We investigate a hybrid multi-cavity optomechanical system with interference from a two-level atomic ensemble. The system is composed of three optical cavities and two nanomechanical resonators. A two-level atomic ensemble is filled into the middle optical cavity. The optical cavity located in the middle has two interaction forces with the two outermost optical cavities. What is more, the system also includes various types of interaction relations, which are the couplings of optical cavities with mechanical resonators and the coupling of optical cavity with two-level atomic ensemble. In order to study the optical response of optomechanically induced transparency, we modulate the interaction intensity within the system to obtain different eletromagnetic induced transparent phenomena. It has been found that under the influence of different parameters, the number of transparent windows and the width of transparent windows increase with an increase in the coupling of the optical cavities with atomic ensemble. In addition, as the system parameters change, the transparency points also move. The position of the two outermost transparent points becomes farther apart when the coupling of optical cavity with mechanical resonators increases. Our approach provides a great flexibility for controlling electromagnetically induced transparency. It will have the great potential applications for quantum information processing.
Abstract We investigate the phenomenon of optomechanically induced transparency assisted by a hybrid two-cavity optomechanical system. The system consists of two optical cavities and four mechanical resonators, and each optical cavity is filled with two-level atomic ensembles. Our study demonstrates that the characteristics of optomechanically induced transparency vary with different coupling parameters. Specifically, the number of transparent windows increases with the introduction of atomic ensembles and Coulomb interaction. Furthermore, the positions of the transparent points can be manipulated by the coupling parameters. It is found that increasing the Coulomb coupling between mechanical oscillators shifts the transparent points further apart. Furthermore, we also explore the slow/fast light effect by analyzing the phase and group delay of the probe field. Our approach enables the control of multiple optomechanically induced transparency and provides potential applications in quantum information processing.