Hela Elmannai , Saad Hassan Kiani , B.G. Parveez Shariff , Daniyal Ali Sehrai , Tanweer Ali , Umair Rafique , Abeer D. Algarni
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A four-element pattern diversity MIMO configuration is developed to evaluate its suitability for MIMO communication, incorporating a connected ground-structure decoupling network to enhance isolation. The MIMO system achieves over 20 dB isolation between elements, with an impedance bandwidth ranging from 20.2 to 33.05 GHz and a peak gain of 6.6 dBi at 28 GHz. Fabrication and measurement validate the design, showing strong agreement with simulations. 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引用次数: 0
摘要
本研究介绍了一种针对毫米波(mmWave)频谱设计的新型四元件 MIMO 天线系统。每个 MIMO 天线元件都有一个蜿蜒的 V 形辐射结构,由 50Ω 微带线和印在 0.254 毫米厚 RO5880 基板上的带方形凹口的部分接地平面馈电。天线的特性模式分析(CMA)显示,天线有效利用了模式 2,而模式 1 和 4 也对谐振做出了贡献,从而产生了毫米波频谱内的宽带响应。开发了一种四元件模式分集多输入输出(MIMO)配置,以评估其是否适合多输入输出(MIMO)通信,该配置结合了一个连接的地面结构去耦网络,以增强隔离效果。该多输入多输出系统的元件间隔离度超过 20 dB,阻抗带宽为 20.2 至 33.05 GHz,28 GHz 时的峰值增益为 6.6 dBi。制造和测量验证了该设计,显示出与模拟结果的高度一致。MIMO 性能指标,包括包络相关系数 (ECC)、分集增益 (DG)、平均有效增益 (MEG)、总有源反射系数 (TARC) 和信道容量损耗 (CCL) 都在可接受的范围内,这表明所提出的 MIMO 天线系统是未来毫米波应用的理想选择。
Design and characterization of a meandered V-shaped antenna using characteristics mode analysis and its MIMO configuration for future mmWave devices
This study presents a novel four-element MIMO antenna system designed for the millimeter-wave (mmWave) spectrum. Each MIMO antenna element features a meandered V-shaped radiating structure fed by a 50 microstrip line and a partial ground plane with a square notch printed on a 0.254-mm thick RO5880 substrate. The characteristic mode analysis (CMA) of the antenna is done, which reveals that the antenna efficiently utilizes Mode 2, while Modes 1 and 4 also contribute to the resonance, resulting in a wideband response within the mmWave spectrum. A four-element pattern diversity MIMO configuration is developed to evaluate its suitability for MIMO communication, incorporating a connected ground-structure decoupling network to enhance isolation. The MIMO system achieves over 20 dB isolation between elements, with an impedance bandwidth ranging from 20.2 to 33.05 GHz and a peak gain of 6.6 dBi at 28 GHz. Fabrication and measurement validate the design, showing strong agreement with simulations. The MIMO performance metrics, including envelope correlation coefficient (ECC), diversity gain (DG), mean effective gain (MEG), total active reflection coefficient (TARC), and channel capacity loss (CCL), are within acceptable limits, suggesting that the proposed MIMO antenna system is a promising candidate for future mmWave applications.
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