Analysis of the influence of a solenoid magnetic field in the azimuth transmission system

Abstract A solenoid magnetic field plays an important role in a non-line-of-sight azimuth transmission system based on polarization-maintaining fiber, which is directly related to the transmission accuracy of azimuth information. This research mainly studies the factors that affect the solenoid magn...

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Autores principales: Zhiyong Yang, Junchen Song, Wei Cai, Gaoxiang Lu, Zhiwei Zhang
Formato: article
Lenguaje:EN
Publicado: Nature Portfolio 2021
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Acceso en línea:https://doaj.org/article/384e09b017cd4195a6439fba4b04ce74
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spelling oai:doaj.org-article:384e09b017cd4195a6439fba4b04ce742021-12-02T16:28:00ZAnalysis of the influence of a solenoid magnetic field in the azimuth transmission system10.1038/s41598-021-95783-02045-2322https://doaj.org/article/384e09b017cd4195a6439fba4b04ce742021-08-01T00:00:00Zhttps://doi.org/10.1038/s41598-021-95783-0https://doaj.org/toc/2045-2322Abstract A solenoid magnetic field plays an important role in a non-line-of-sight azimuth transmission system based on polarization-maintaining fiber, which is directly related to the transmission accuracy of azimuth information. This research mainly studies the factors that affect the solenoid magnetic field according to the modulation signal from the direct current to the alternating current, as well as the hollow solenoid. First, the magnetic field components of the static solenoid are derived from the Biot–Savart law by using the uniform cylindrical current equivalent model. Then, the magnetic field of the near axial region is studied from the axial and radial directions, and the feasibility of calculating the magnetic field of the multi-layer solenoid with the superposition principle is verified by measuring the magnetic field of each position on the axis of the solenoid with a Gauss meter. Finally, the alternating electromagnetic field model is established using Maxwell’s equations, and the magnetic and electric fields of the hollow solenoid are further solved. The results show that the magnetic field in the middle part of the magneto-optic glass is more stable, and the magnetic collecting ability of the solenoid is stronger. The magnetic field intensity at the center of the magneto-optic modulation solenoid of the system is the largest, and it decreases with the distance from the center. The alternating electromagnetic field is closely related to frequency. The results provide a reference for the study of the azimuth accuracy of a non-line-of-sight azimuth transmission system.Zhiyong YangJunchen SongWei CaiGaoxiang LuZhiwei ZhangNature PortfolioarticleMedicineRScienceQENScientific Reports, Vol 11, Iss 1, Pp 1-11 (2021)
institution DOAJ
collection DOAJ
language EN
topic Medicine
R
Science
Q
spellingShingle Medicine
R
Science
Q
Zhiyong Yang
Junchen Song
Wei Cai
Gaoxiang Lu
Zhiwei Zhang
Analysis of the influence of a solenoid magnetic field in the azimuth transmission system
description Abstract A solenoid magnetic field plays an important role in a non-line-of-sight azimuth transmission system based on polarization-maintaining fiber, which is directly related to the transmission accuracy of azimuth information. This research mainly studies the factors that affect the solenoid magnetic field according to the modulation signal from the direct current to the alternating current, as well as the hollow solenoid. First, the magnetic field components of the static solenoid are derived from the Biot–Savart law by using the uniform cylindrical current equivalent model. Then, the magnetic field of the near axial region is studied from the axial and radial directions, and the feasibility of calculating the magnetic field of the multi-layer solenoid with the superposition principle is verified by measuring the magnetic field of each position on the axis of the solenoid with a Gauss meter. Finally, the alternating electromagnetic field model is established using Maxwell’s equations, and the magnetic and electric fields of the hollow solenoid are further solved. The results show that the magnetic field in the middle part of the magneto-optic glass is more stable, and the magnetic collecting ability of the solenoid is stronger. The magnetic field intensity at the center of the magneto-optic modulation solenoid of the system is the largest, and it decreases with the distance from the center. The alternating electromagnetic field is closely related to frequency. The results provide a reference for the study of the azimuth accuracy of a non-line-of-sight azimuth transmission system.
format article
author Zhiyong Yang
Junchen Song
Wei Cai
Gaoxiang Lu
Zhiwei Zhang
author_facet Zhiyong Yang
Junchen Song
Wei Cai
Gaoxiang Lu
Zhiwei Zhang
author_sort Zhiyong Yang
title Analysis of the influence of a solenoid magnetic field in the azimuth transmission system
title_short Analysis of the influence of a solenoid magnetic field in the azimuth transmission system
title_full Analysis of the influence of a solenoid magnetic field in the azimuth transmission system
title_fullStr Analysis of the influence of a solenoid magnetic field in the azimuth transmission system
title_full_unstemmed Analysis of the influence of a solenoid magnetic field in the azimuth transmission system
title_sort analysis of the influence of a solenoid magnetic field in the azimuth transmission system
publisher Nature Portfolio
publishDate 2021
url https://doaj.org/article/384e09b017cd4195a6439fba4b04ce74
work_keys_str_mv AT zhiyongyang analysisoftheinfluenceofasolenoidmagneticfieldintheazimuthtransmissionsystem
AT junchensong analysisoftheinfluenceofasolenoidmagneticfieldintheazimuthtransmissionsystem
AT weicai analysisoftheinfluenceofasolenoidmagneticfieldintheazimuthtransmissionsystem
AT gaoxianglu analysisoftheinfluenceofasolenoidmagneticfieldintheazimuthtransmissionsystem
AT zhiweizhang analysisoftheinfluenceofasolenoidmagneticfieldintheazimuthtransmissionsystem
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