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

International Journal for Research in Applied Science and Engineering Technology

A Comparison between Christiansen Effect and Electromagnetically Induced Transparency

R. Mahanta

Published Jan 31, 2021• 0 citations
Publisher

Abstract

In the present work we make a comparison between Christiansen effect and Electromagnetically induced transparency (EIT).These two phenomena are analogous.
DOI
10.22214/ijraset.2021.32815

Related papers

Investigation of Electromagnetically Induced Transparency

Yang Li-jun

It was summaried in this article that some investigation of well-known Electromagnetically Induced Transparency, including attempted discussion about physical mechanism of this phenomenon. And in comparison with ac stark splitting driven by strong electromagnetic fields, it was pointed that both phenomena had some delicate differences in physical mechanism.

Journal of Hebei University•Jan 1, 2004•0 citations

Electromagnetically Induced Transparency (EIT)

Han Seb Moon

Physics and High Technology•May 31, 2010•0 citations

All-optical analog to electromagnetic induced transparency effects based on vertical coupling photonic crystal cavities

Changyu Hu, Liam O’Faoláin

We designed and experimentally studied all-optical analog to electromagnetically induced transparency (EIT) effect in vertical coupling photonic crystal cavities. By tuning the phase difference between two cavities, EIT-like phenomena for two modes at different wavelengths has been experimentally demonstrated.

IEEE International Conference on Group IV Photonics (GFP)•Aug 1, 2016•0 citations

Magnetic field effects on the dispersive properties of electromagnetically induced transparency (EIT) and absorption (EIA)

Mehmood Shah, Bakht Hussain, Saneela Rafique +5 more

Optics Communications•May 21, 2025•0 citations

Electromagnetically induced transparency controlled by auxiliary wave via three-wave mixing

Toshihiro Nakanishi, Masao Kitano

We introduce a metamaterial for realizing true electromagnetically induced transparency (EIT) in analogy to atomic EIT effect. In the metamaterial, two resonant modes oscillating at different resonant frequencies are coupled through three-wave mixing in the presence of an auxiliary wave, and sharp transparency attributed to EIT effect is induced. We experimentally demonstrate the EIT effect using the metamaterial loaded with nonlinear capacitors in microwave region.

International Congress on Advanced Electromagnetic Materials in Microwaves and Optics•Sep 1, 2015•0 citations

Analog of electromagnetically induced absorption and transparency phenomena of nonreciprocity and polarization sensitivity properties in layered topology metastructure

Hai-Ning Ye, Bao-Fei Wan, Haifeng Zhang

The nonreciprocal and polarization-sensitive performances of analog of electromagnetically induced absorption (EIA-like) and electromagnetically induced transparency (EIT-like) effects are investigated by the transfer matrix method (TMM), and the layered topology metastructure containing microwave magnetized plasma is used to construct suitable bright resonators, dark resonators, and quasi-dark resonators. In the case of low frequencies, the incident TM wave fosters an evident nonreciprocal EIA-like effect, and its nonreciprocal absorptivity is higher than 0.8, while the EIA-like phenomenon fails to occur in the case of the incident TE wave. For the case of high-frequency incidence, the EIT-like and EIA-like effects can be switched by converting the TM wave into the TE one under the case of backward propagation, and the maximum nonreciprocal absorptivity can exceed 0.9 if the TE wave propagates. The effects of some critical variables such as incident angle, plasma frequency, plasma cyclotron frequency, and plasma layer thickness on nonreciprocal and polarization-sensitive characteristics have been explored, and the slow light property of the EIT-like effect has also been briefly involved, and its group refractive index can reach 1224. The energy level transition theory and the optimized two-oscillator model are also analyzed to explain the generation of EIA-like and EIT-like phenomena in depth. We hope that the relevant phenomena will be interesting for slow light devices, two-way communication of electromagnetic waves, and polarization separation devices.

Ain Shams Engineering Journal•Sep 24, 2024•1 citation
The nonreciprocal and polarization-sensitive performances of analog of electromagnetically induced absorption (EIA-like) and electromagnetically induced transparency (EIT-like) effects are investigated by the transfer matrix method (TMM), and the layered topology metastructure containing microwave magnetized plasma is used to construct suitable bright resonators, dark resonators, and quasi-dark resonators. In the case of low frequencies, the incident TM wave fosters an evident nonreciprocal EIA-like effect, and its nonreciprocal absorptivity is higher than 0.8, while the EIA-like phenomenon fails to occur in the case of the incident TE wave. For the case of high-frequency incidence, the EIT-like and EIA-like effects can be switched by converting the TM wave into the TE one under the case of backward propagation, and the maximum nonreciprocal absorptivity can exceed 0.9 if the TE wave propagates. The effects of some critical variables such as incident angle, plasma frequency, plasma cyclotron frequency, and plasma layer thickness on nonreciprocal and polarization-sensitive characteristics have been explored, and the slow light property of the EIT-like effect has also been briefly involved, and its group refractive index can reach 1224. The energy level transition theory and the optimized two-oscillator model are also analyzed to explain the generation of EIA-like and EIT-like phenomena in depth. We hope that the relevant phenomena will be interesting for slow light devices, two-way communication of electromagnetic waves, and polarization separation devices.