基于EBG结构的开槽莲花型微带天线

T. Elwi
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引用次数: 18

摘要

本文的目的是深入研究一种基于印刷开槽贴片的莲花形结构的设计,该结构安装在具有电磁带隙(EBG)层的介质衬底上,用于宽带应用。电介质衬底由罗杰RT/duroid®5880层制成。在衬底的背面引入EBG层,以在宽频带上提供高增益带宽产品。天线馈电采用一种新型的共面波导(CPW)喇叭形结构;因此,接地面与贴片结构安装在同一基片表面上。在基板背面引入导电线,从底部通过两个支撑板连接到CPW,以消除EBG层对馈电结构的影响。本文分别用解析分析和数值参数研究的方法讨论了电子束的性能和天线的设计方法。最后利用CST MWS进行了数值模拟;制作并测量了优化后的天线设计,并与仿真结果进行了对比验证。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Slotted Lotus Shaped Microstrip Antenna based an EBG Structure
The objective of this paper is to study intensively the design of a printed slotted patch based lotus shape structure mounted on a dielectric substrate backed with an electromagnetic band Gap (EBG) layer for wideband applications. The dielectric substrate is made of a Roger RT/duroid®5880 layer. An EBG layer is introduced on the back profile of the substrate to provide a high gain bandwidth product over wide frequency bands. The antenna is fed with a novel coplanar waveguide (CPW) structure of a flared geometry; therefore, the ground plane is mounted on the same substrate surface with the patch structure. A conductive trace is introduced at the substrate back from the bottom connected to the CPW through two shoring plates to remove the effects of the EBG layer on the feed structure. The EBG performance and the antenna design methodology are discussed using analytical analyses and numerical parametric studies, respectively. The numerical simulation is conducted using CST MWS Finally; the optimal antenna design is fabricated and measured for validation to be compared to the simulated results.
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