The Effect of Rabi Frequency on the Electric Susceptibility of the Six-levels Inverted-Y Atomic Systems

The effect of changing the value of Rabi frequency has been studied in six level atomic system, Optical Bloch equations where used as the main tool to get the final shape of the model to treat the model. In this work we present a theoretical study of the non-linear optical properties of materials as a result of their interaction with laser radiation in resonance state. Density matrix was used in our formulation of Optical Bloch Equation. These equations were solved using Matlap program for Six-levels Inverted-Y Atomic Systems. A formula for calculation of electrical susceptibility was obtained. With increasing the real and imaginary parts of the electric susceptibility have also increased gradually which effects the index of refraction of the medium (real part), and the absorption window (described by the imaginary part). Moreover, when increasing the real and imaginary parts of the electric susceptibility decreased and we noticed that with increasing the value of the signal laser field related to transition |2⟩ ↔ |6⟩a distortion starts to appear on both real and imaginary parts. Key Words: Rabi frequency, Density matrix, electrical susceptibility, laser, Optical Bloch equations.

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Publication Details

Journal
International Science and Technology Journal
Published
2024-10-05
DOI
https://doi.org/10.62341/ssei2035
Primary Topic
Photorefractive and Nonlinear Optics
Type
article
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article

The Effect of Rabi Frequency on the Electric Susceptibility of the Six-levels Inverted-Y Atomic Systems

Suad A. Almjar, Eman O. Mafaa, Suad M. Abuzariba, Issra M. Bunhmada
International Science and Technology Journal
Photorefractive and Nonlinear Optics
article

The Effect of Rabi Frequency on the Electric Susceptibility of the Six-levels Inverted-Y Atomic Systems

Suad A. Almjar, Eman O. Mafaa, Suad M. Abuzariba, Issra M. Bunhmada
article en

Abstract

The effect of changing the value of Rabi frequency has been studied in six level atomic system, Optical Bloch equations where used as the main tool to get the final shape of the model to treat the model. In this work we present a theoretical study of the non-linear optical properties of materials as a result of their interaction with laser radiation in resonance state. Density matrix was used in our formulation of Optical Bloch Equation. These equations were solved using Matlap program for Six-levels Inverted-Y Atomic Systems. A formula for calculation of electrical susceptibility was obtained. With increasing the real and imaginary parts of the electric susceptibility have also increased gradually which effects the index of refraction of the medium (real part), and the absorption window (described by the imaginary part). Moreover, when increasing the real and imaginary parts of the electric susceptibility decreased and we noticed that with increasing the value of the signal laser field related to transition |2⟩ ↔ |6⟩a distortion starts to appear on both real and imaginary parts. Key Words: Rabi frequency, Density matrix, electrical susceptibility, laser, Optical Bloch equations.

International Science and Technology JournalVol. 35(1)
Openalex Percentile: Top 80%
Photorefractive and Nonlinear Optics
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The Effect of Rabi Frequency on the Electric Susceptibility of the Six-levels Inverted-Y Atomic Systems — Suad A. Almjar, Eman O. Mafaa, et al. · International Science and Technology Journal (2024) | TGRS Research Map | TGRS