Authors :
Bheulah G L; Dr. G A Rathy; Dr. P Sivasankar; Dr. G Kulanthaivel; Dr. R Suja Mani Malar
Volume/Issue :
Volume 10 - 2025, Issue 7 - July
Google Scholar :
https://tinyurl.com/4ztpnsap
DOI :
https://doi.org/10.38124/ijisrt/25jul150
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Abstract :
For long-distance communication in the air, Electromagnetic (EM) waves are often used as well. However, when
used for communication through soil, their performance becomes compromised due to the varying composition of the soil
such as red soil or black cotton soil. Soil with these properties absorbs and diffraction is very high, which results in data
loss. Due to the underground environment, path loss and signal attenuation increase as transmission distance increases.
In modern times, communication systems are primarily used underground to transmit data in fields such as
agriculture, tunnel monitoring, and underground infrastructure. These communications are supported by Wireless
Underground Sensor Networks (WUSN) that have been developed. Due to the challenges faced with underground
applications of EM waves, Magnetic Induction (MI) has become more effective. The use of magnetic coils as transceivers
provides a more stable and efficient way to transmit data through soil.
Keywords :
Electromagnetic Waves, Wireless Underground Sensor Networks, Magnetic Induction.
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For long-distance communication in the air, Electromagnetic (EM) waves are often used as well. However, when
used for communication through soil, their performance becomes compromised due to the varying composition of the soil
such as red soil or black cotton soil. Soil with these properties absorbs and diffraction is very high, which results in data
loss. Due to the underground environment, path loss and signal attenuation increase as transmission distance increases.
In modern times, communication systems are primarily used underground to transmit data in fields such as
agriculture, tunnel monitoring, and underground infrastructure. These communications are supported by Wireless
Underground Sensor Networks (WUSN) that have been developed. Due to the challenges faced with underground
applications of EM waves, Magnetic Induction (MI) has become more effective. The use of magnetic coils as transceivers
provides a more stable and efficient way to transmit data through soil.
Keywords :
Electromagnetic Waves, Wireless Underground Sensor Networks, Magnetic Induction.