Multiple Phase Stepping Generation in Alkali Metal Atoms: A Comparative Theoretical Study

We theoretically demonstrated optical phase switches in light storage-like experiments. Typical light storage (LS) and retrieval experiments consist of the probe field in the probe channel with writing and reading fields across the drive branch, as well as its recovery. The probe and first drive pul...

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Main Authors: Abu Mohamed Alhasan, Abeer S. Altowyan, A. Y. Madkhli, Salah Abdulrhmann
Format: Article
Language:English
Published: MDPI AG 2023-03-01
Series:Applied Sciences
Subjects:
Online Access:https://www.mdpi.com/2076-3417/13/6/3670
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author Abu Mohamed Alhasan
Abeer S. Altowyan
A. Y. Madkhli
Salah Abdulrhmann
author_facet Abu Mohamed Alhasan
Abeer S. Altowyan
A. Y. Madkhli
Salah Abdulrhmann
author_sort Abu Mohamed Alhasan
collection DOAJ
description We theoretically demonstrated optical phase switches in light storage-like experiments. Typical light storage (LS) and retrieval experiments consist of the probe field in the probe channel with writing and reading fields across the drive branch, as well as its recovery. The probe and first drive pulses as the standard electromagnetically induced transparency (EIT) effect of storing light are used in the proposed scheme for the atomic excitations. A train of probe pulses is used after a short storage period to induce Raman gain in the drive channel. The proposed scheme was applied to alkali-metal atoms such as <sup>23</sup>Na, <sup>87</sup>Rb, and <sup>39</sup>K vapours. Spatiotemporal phase variations for generated drive pulses were found to shape in the form of discrete phase distributions. The proposed approach in the process of obtaining phase discrete distributions for different irradiation intensities was tested. For weak fields, the discrete distributions were distinct as a result of the differences in the upper hyperfine structure (hf) and the atomic relaxations. However, for moderate fields, the discrete phase distributions are smeared by the atomic relaxations.
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spelling doaj.art-8859f28d081845dba0e76fe51d88bdf32023-11-17T09:25:05ZengMDPI AGApplied Sciences2076-34172023-03-01136367010.3390/app13063670Multiple Phase Stepping Generation in Alkali Metal Atoms: A Comparative Theoretical StudyAbu Mohamed Alhasan0Abeer S. Altowyan1A. Y. Madkhli2Salah Abdulrhmann3Physics Department, Faculty of Science, Assiut University, Assiut 71516, EgyptDepartment of Physics, College of Science, Princess Nourah bint Abdulrahman University, P.O. Box 84428, Riyadh 11671, Saudi ArabiaDepartment of Physics, College of Science, Jazan University, P.O. Box 114, Jazan 45142, Saudi ArabiaDepartment of Physics, College of Science, Jazan University, P.O. Box 114, Jazan 45142, Saudi ArabiaWe theoretically demonstrated optical phase switches in light storage-like experiments. Typical light storage (LS) and retrieval experiments consist of the probe field in the probe channel with writing and reading fields across the drive branch, as well as its recovery. The probe and first drive pulses as the standard electromagnetically induced transparency (EIT) effect of storing light are used in the proposed scheme for the atomic excitations. A train of probe pulses is used after a short storage period to induce Raman gain in the drive channel. The proposed scheme was applied to alkali-metal atoms such as <sup>23</sup>Na, <sup>87</sup>Rb, and <sup>39</sup>K vapours. Spatiotemporal phase variations for generated drive pulses were found to shape in the form of discrete phase distributions. The proposed approach in the process of obtaining phase discrete distributions for different irradiation intensities was tested. For weak fields, the discrete distributions were distinct as a result of the differences in the upper hyperfine structure (hf) and the atomic relaxations. However, for moderate fields, the discrete phase distributions are smeared by the atomic relaxations.https://www.mdpi.com/2076-3417/13/6/3670alkali-metal vapourshyperfine structurefinite train propagationphase-sensitive methodsuncertainty productreduced Maxwell equations
spellingShingle Abu Mohamed Alhasan
Abeer S. Altowyan
A. Y. Madkhli
Salah Abdulrhmann
Multiple Phase Stepping Generation in Alkali Metal Atoms: A Comparative Theoretical Study
Applied Sciences
alkali-metal vapours
hyperfine structure
finite train propagation
phase-sensitive methods
uncertainty product
reduced Maxwell equations
title Multiple Phase Stepping Generation in Alkali Metal Atoms: A Comparative Theoretical Study
title_full Multiple Phase Stepping Generation in Alkali Metal Atoms: A Comparative Theoretical Study
title_fullStr Multiple Phase Stepping Generation in Alkali Metal Atoms: A Comparative Theoretical Study
title_full_unstemmed Multiple Phase Stepping Generation in Alkali Metal Atoms: A Comparative Theoretical Study
title_short Multiple Phase Stepping Generation in Alkali Metal Atoms: A Comparative Theoretical Study
title_sort multiple phase stepping generation in alkali metal atoms a comparative theoretical study
topic alkali-metal vapours
hyperfine structure
finite train propagation
phase-sensitive methods
uncertainty product
reduced Maxwell equations
url https://www.mdpi.com/2076-3417/13/6/3670
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AT abeersaltowyan multiplephasesteppinggenerationinalkalimetalatomsacomparativetheoreticalstudy
AT aymadkhli multiplephasesteppinggenerationinalkalimetalatomsacomparativetheoreticalstudy
AT salahabdulrhmann multiplephasesteppinggenerationinalkalimetalatomsacomparativetheoreticalstudy