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Modern communication systems demand antennas with wide bandwidth and high gain for mmWave 5G. This work presents a compact antenna design using rectangular slots to enhance current density, fabricated on a Rogers substrate (100 × 100 × 1.6 mm3) with a 5 × 5 mm2 element. The antenna exhibits multiband operation with notches at 7.98, 9.08, 11.22, 13.03, 13.79, 35.61, and 38.48 GHz, achieving reflection coefficients of −18.35 to −42.53 dB and a peak gain of 12.5 dBi. It covers 0.08–5.28 GHz bandwidth, supports 5G FR2 (n259/n260), FR3 (6–20 GHz), V2X, satellite, and terrestrial navigation. The effectiveness of antennas for next-generation wireless systems is confirmed through computational simulations using CST. Its dual-band coverage across FR2 and FR3 ranges offers data capacity, making it a strong candidate for 5G and 6G applications with an optimal balance of propagation.

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Design and Analysis of Hybrid Fed Antenna Array for Advanced 5G, V2X Wireless Telemetry Satellite Applications

  • 会议论文

  • 发表日期：

    2026年

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  • Nabankita Majumder,
  • Arun Raj,
  • Durbadal Mandal

摘要

Modern communication systems demand antennas with wide bandwidth and high gain for mmWave 5G. This work presents a compact antenna design using rectangular slots to enhance current density, fabricated on a Rogers substrate (100 × 100 × 1.6 mm3) with a 5 × 5 mm2 element. The antenna exhibits multiband operation with notches at 7.98, 9.08, 11.22, 13.03, 13.79, 35.61, and 38.48 GHz, achieving reflection coefficients of −18.35 to −42.53 dB and a peak gain of 12.5 dBi. It covers 0.08–5.28 GHz bandwidth, supports 5G FR2 (n259/n260), FR3 (6–20 GHz), V2X, satellite, and terrestrial navigation. The effectiveness of antennas for next-generation wireless systems is confirmed through computational simulations using CST. Its dual-band coverage across FR2 and FR3 ranges offers data capacity, making it a strong candidate for 5G and 6G applications with an optimal balance of propagation.