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

Europhysics Letters (EPL)

Control of slow-to-fast light and single-to-double optomechanically induced transparency in a compound resonator system: A theoretical approach

Ziauddin Ziauddin, Mujeeb Ur Rahman, Iftikhar Ahmad, Sajid Qamar

Published Oct 1, 2017• 20 citations
Publisher

Abstract

Control of slow-to-fast light and single-to-double optomechanically induced transparency in a compound resonator system: A theoretical approach, Ziauddin, Rahman, Mujeeb ur, Ahmad, Iftikhar, Qamar, Sajid
DOI
10.1209/0295-5075/120/24001

Related papers

Double transparency with slow and fast light in an optomechanical system

Ziauddin Ziauddin, Rahmatullah Rahmatullah, Anwar Hussain +1 more

Optics Communications•Jan 10, 2020•11 citations

Controllable transparency and slow–fast light in an optomechanical system with a triple quantum well

Chunchao Yu, Xuqiang Guan, Wen‐Xing Yang +2 more

Optical and Quantum Electronics•Nov 23, 2023•8 citations

Manipulation of multi-transparency windows and fast-slow light transitions in a hybrid cavity optomechanical system

Ming-Hua Zheng, Tie Wang, Dongyang Wang +4 more

Science China Physics Mechanics and Astronomy•Mar 6, 2019•19 citations

Tunable multistability, optomechanically induced transparency and fast-to-slow light transitions in a quadratically coupled electro-optomechanical system consisting of Kerr medium

Sonam Mahajan, Neha Aggarwal, Aranya B. Bhattacherjee

Optical and Quantum Electronics•Dec 2, 2024•3 citations

Compound-induced transparency in three-cavity coupled structure*

Haoye Qin, Yiheng Yin, Ming Ding

We propose a three-cavity coupled cavity optomechanical (COM) structure with tunable system parameters and theoretically investigate the probe-light transmission rate. Numerical calculation of the system’s spectra demonstrates distinctive compound-induced transparency (CIT) characteristics, including multiple transparency windows and sideband dips, which can be explained by a coupling between optomechanically-induced transparency (OMIT) and electromagnetically-induced transparency. The effects of optical loss (gain) in the cavity, number and topology of active cavity, tunneling ratio, and pump laser power on the CIT spectrum are evaluated and analyzed. Moreover, the optical group delay of CIT is highly controllable and fast–slow light inter-transition can be achieved. The proposed structure makes possible the advantageous tuning freedom and provides a potential platform for controlling light propagation and fast–slow light switching.

Chinese Physics B•Aug 1, 2020•0 citations

Optomechanically Induced Transparency and Slow–Fast Light Effect in Hybrid Cavity Optomechanical Systems

Qinghong Liao, Weida Bao, Xing Mao Xiao +2 more

We theoretically investigate the optomechanically induced transparency (OMIT) phenomenon and the fast and slow light effects of a four-mode optomechanical system with the Kerr medium. The optomechanical system is composed of an array of three single-mode cavities and a mechanical oscillator. The three cavities are a passive cavity, a no-loss-gain cavity and a gain optical cavity, respectively. A Kerr medium is inserted in the passive cavity. We study the influence of the Kerr medium on the stability of the optomechanical system, and find that the stable regime of the optomechanical system can be adjusted by changing the Kerr coefficient. We demonstrate that the phenomenon of optomechanically induced transparency will appear when the Kerr medium exists in the optomechanical system and find that the frequency position of the absorption peak on the left increases linearly with the Kerr coefficient. In addition, we also investigate the fast and slow light effects in this system. The results show that we can control the fast and slow light by adjusting the Kerr coefficient, tunneling strength, and driving field strength. This study has potential application prospects in the fields of quantum optical devices and quantum information processing.

Crystals•Jun 18, 2021•4 citations
We propose a three-cavity coupled cavity optomechanical (COM) structure with tunable system parameters and theoretically investigate the probe-light transmission rate. Numerical calculation of the system’s spectra demonstrates distinctive compound-induced transparency (CIT) characteristics, including multiple transparency windows and sideband dips, which can be explained by a coupling between optomechanically-induced transparency (OMIT) and electromagnetically-induced transparency. The effects of optical loss (gain) in the cavity, number and topology of active cavity, tunneling ratio, and pump laser power on the CIT spectrum are evaluated and analyzed. Moreover, the optical group delay of CIT is highly controllable and fast–slow light inter-transition can be achieved. The proposed structure makes possible the advantageous tuning freedom and provides a potential platform for controlling light propagation and fast–slow light switching.
We theoretically investigate the optomechanically induced transparency (OMIT) phenomenon and the fast and slow light effects of a four-mode optomechanical system with the Kerr medium. The optomechanical system is composed of an array of three single-mode cavities and a mechanical oscillator. The three cavities are a passive cavity, a no-loss-gain cavity and a gain optical cavity, respectively. A Kerr medium is inserted in the passive cavity. We study the influence of the Kerr medium on the stability of the optomechanical system, and find that the stable regime of the optomechanical system can be adjusted by changing the Kerr coefficient. We demonstrate that the phenomenon of optomechanically induced transparency will appear when the Kerr medium exists in the optomechanical system and find that the frequency position of the absorption peak on the left increases linearly with the Kerr coefficient. In addition, we also investigate the fast and slow light effects in this system. The results show that we can control the fast and slow light by adjusting the Kerr coefficient, tunneling strength, and driving field strength. This study has potential application prospects in the fields of quantum optical devices and quantum information processing.