Scholarlink

The fifth generation wireless network, termed as 5G, is the most highly developed wireless telecommunication standard that has replaced all previous ones—1G, 2G, 3G, and 4G. The innovation brings a revolutionary network architecture to enable the connectivity of a multitude of entities across electronic devices, consumer goods, and other digital systems. Despite what it can offer, 5G comes with a high Specific Absorption Rate (SAR), which sparks concerns over electromagnetic field (EMF) exposure. To answer this challenge, we introduce a new and innovative solution. The current project outlines an advanced method of band identification that uses best data rates in multi-hop packet routing, aimed at minimizing and dispersing the transmission power. This method lessens the SAR effects due to EMF exposure. Theoretical analysis sets an upper limit on the number of hops allowed in a particular spectral band with linear constraints. Simulation results on randomly created network topologies show that the method proposed here provides better SAR performance compared to standard direct communication with base stations.

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A Specific Processing of Device to Device Communication Through Multihop for Equalizing and Minimizing Sar

  • 会议论文

  • 发表日期：

    2026年

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  • Vivekanand Aelgani,
  • T. Bhaskar,
  • S. Kirubakaran,
  • Voruganti Naresh Kumar,
  • Yedlla Satyam,
  • Bejjanki Pooja

摘要

The fifth generation wireless network, termed as 5G, is the most highly developed wireless telecommunication standard that has replaced all previous ones—1G, 2G, 3G, and 4G. The innovation brings a revolutionary network architecture to enable the connectivity of a multitude of entities across electronic devices, consumer goods, and other digital systems. Despite what it can offer, 5G comes with a high Specific Absorption Rate (SAR), which sparks concerns over electromagnetic field (EMF) exposure. To answer this challenge, we introduce a new and innovative solution. The current project outlines an advanced method of band identification that uses best data rates in multi-hop packet routing, aimed at minimizing and dispersing the transmission power. This method lessens the SAR effects due to EMF exposure. Theoretical analysis sets an upper limit on the number of hops allowed in a particular spectral band with linear constraints. Simulation results on randomly created network topologies show that the method proposed here provides better SAR performance compared to standard direct communication with base stations.