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<p>To reduce the deployment cost of base stations and address the shortage of antenna resources, this paper develops a low-profile base station antenna with an Artificial Magnetic Conductor (AMC) structure for Sub-6 GHz. A square cross-dipole structure with chamfered corners is designed, achieving good impedance matching characteristics and significantly improving the port isolation of the antenna. The designed AMC surface structure is used to replace the traditional metal floor of the base station antenna. The suppression of surface waves and phase compensation reduce the profile height of the base station antenna to 0.11<InlineEquation ID="IEq1"> <EquationSource Format="TEX">\(\lambda\)</EquationSource> </InlineEquation>. To test its electrical performance, an antenna sample is fabricated. Both simulation and measurement results show that the low-profile base station antenna achieves an impedance bandwidth of 3.1–4.1 GHz, with a port isolation better than 42 dB, a Voltage Standing Wave Ratio less than 1.5, and a gain greater than 8.5 dBi within the operating frequency band, exhibiting stable radiation pattern characteristics.</p>

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A low-profile high-isolation dual-polarized base station antenna based on AMC

  • 期刊论文

  • 出版模式：

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  • 发表日期：

    2026年4月2日

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  • Lijun Zhang,
  • Yongshun Wang,
  • Wenqiang Dang,
  • Xueyun Jiang,
  • Huan Yang

摘要

To reduce the deployment cost of base stations and address the shortage of antenna resources, this paper develops a low-profile base station antenna with an Artificial Magnetic Conductor (AMC) structure for Sub-6 GHz. A square cross-dipole structure with chamfered corners is designed, achieving good impedance matching characteristics and significantly improving the port isolation of the antenna. The designed AMC surface structure is used to replace the traditional metal floor of the base station antenna. The suppression of surface waves and phase compensation reduce the profile height of the base station antenna to 0.11 \(\lambda\) . To test its electrical performance, an antenna sample is fabricated. Both simulation and measurement results show that the low-profile base station antenna achieves an impedance bandwidth of 3.1–4.1 GHz, with a port isolation better than 42 dB, a Voltage Standing Wave Ratio less than 1.5, and a gain greater than 8.5 dBi within the operating frequency band, exhibiting stable radiation pattern characteristics.