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High-performance antennas with wide bandwidth and high gain are in high demand for 5G wireless communication. A new high-band microstrip patch antenna for 5G networks is presented in this chapter. The antenna was simulated using CST software and features a 50 Ω microstrip feed line connected to the radiating patch via an inset transmission wire. The antenna’s Rogers RT5880 substrate was developed for 5G network productivity’s high gain and broad bandwidth. The return loss was −21.076 dB, VSWR was 1.1938, the gain was 7.22 dBi, directivity was 7.62 dBi, efficiency was 94.75%, and bandwidth was 13.78 GHz at 62.5 GHz. For 5G wireless communication, this antenna covers 54.665–68.445 GHz. The antenna’s wireless communication technology is a promising solution for future 5G networks due to its lack of wires, cost-effective techniques and subsystems, and simple remote communication.

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Design, Simulation, and Optimization of a Microstrip Antenna for 5G Wireless Applications

  • 章节

  • 发表日期：

    2025年

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  • Md. Sohel Rana,
  • Sheikh Md. Rabiul Islam,
  • Sudipta Das

摘要

High-performance antennas with wide bandwidth and high gain are in high demand for 5G wireless communication. A new high-band microstrip patch antenna for 5G networks is presented in this chapter. The antenna was simulated using CST software and features a 50 Ω microstrip feed line connected to the radiating patch via an inset transmission wire. The antenna’s Rogers RT5880 substrate was developed for 5G network productivity’s high gain and broad bandwidth. The return loss was −21.076 dB, VSWR was 1.1938, the gain was 7.22 dBi, directivity was 7.62 dBi, efficiency was 94.75%, and bandwidth was 13.78 GHz at 62.5 GHz. For 5G wireless communication, this antenna covers 54.665–68.445 GHz. The antenna’s wireless communication technology is a promising solution for future 5G networks due to its lack of wires, cost-effective techniques and subsystems, and simple remote communication.