DEVELOPMENT OF A MATHEMATICAL MODEL TO TAKE INTO ACCOUNT THE INFLUENCE OF THE MARINE ENVIRONMENT ON THE PROPAGATION OF A MAGNETIC FIELD IN WIRELESS COMMUNICATION SYSTEMS
Authors:
1.
Sevastopol State University
(Electrinics Engineering, Professor)
from 01.01.1985 until now
Sevastopol, Russian Federation
from 01.01.1985 until now
Sevastopol, Russian Federation
2.
Sevastopol State University
Sevastopol, Sevastopol, Russian Federation
Sevastopol, Sevastopol, Russian Federation
3.
Sevastopol State University
Sevastopol, Sevastopol, Russian Federation
Sevastopol, Sevastopol, Russian Federation
Type:
Article
Pages:
from 63
to 69
Status:
Published
Received:
17.05.2023
Accepted:
20.05.2023
Published:
30.05.2023
Subject area:
UDK 621.3.095.3 Напряженность поля
UDK 621.396.67.095 Виды излучения. Напряженность поля
UDK 621.396.67.095 Виды излучения. Напряженность поля
Language:
Russian
Keywords:
wireless communication, magnetic-inductive communication, mobile sensor systems, electrically conductive media
Abstract (English):
The article proposes a mathematical model for taking into account the influence of an electrically conductive medium on the propagation of a magnetic field in the problem of implementing wireless communication under water, that is, in an environment with high attenuation of the electrical component of the electromagnetic field. The results of modeling the dependence of the attenuation on the distance of the amplitude of the magnetic field strength in free space and in an absorbing medium at a frequency of 3 MHz are presented. It is planned to conduct experimental studies to refine the model.
The article proposes a mathematical model for taking into account the influence of an electrically conductive medium on the propagation of a magnetic field in the problem of implementing wireless communication under water, that is, in an environment with high attenuation of the electrical component of the electromagnetic field. The results of modeling the dependence of the attenuation on the distance of the amplitude of the magnetic field strength in free space and in an absorbing medium at a frequency of 3 MHz are presented. It is planned to conduct experimental studies to refine the model.
Keywords:
wireless communication, magnetic-inductive communication, mobile sensor systems, electrically conductive media
wireless communication, magnetic-inductive communication, mobile sensor systems, electrically conductive media
1. K. V. Pokazeyev, T. O. Chaplina, Oceanology. Optics of the ocean. Moscow : Yurayt, 2022.
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