微带贴片天线集成EBG

S. Yamini, B. Panjavarnam
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引用次数: 6

摘要

可穿戴天线可用于远程医疗、消防、导航等多种用途。可穿戴天线被集成到织物中,它离身体更近,因此背部辐射必须很低,以防止人体受到天线辐射的伤害。因此,有必要考虑天线的辐射特性。本文提出了一种工作频率为1800MHz和2.45GHz的双频微带贴片天线。用电子带隙(EBG)结构的集成来描述天线的性能。微带贴片天线和EBG结构由介电常数为1.4、厚度为2.85mm的聚酯材料构成。厚度为35微米的铜片被用作导电材料。结合EBG结构后,天线在1800MHz和2.45GHz频段的背辐射均有所降低。本文给出了两种情况下的回波损耗和辐射方向图。仿真结果表明,与无EBG的微带贴片天线相比,该天线的辐射特性得到了显著改善。该天线尺寸紧凑,双频工作,适用于工业科学医疗波段、军事和救援系统的远程医疗使用。
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Microstrip patch antenna integrated with EBG
Wearable antenna facilitates various applications such as telemedicine, fire-fighting and navigation purpose. The wearable antennas are integrated into fabrics and it acts closer to the body hence the back radiations has to be low to prevent human from any harm due to the antennas radiation. Therefore it is necessary to consider the radiation characteristics of the antenna. This paper presents a dual band microstrip patch antenna for wearable applications which operates at 1800MHz and 2.45GHz. The antenna performance is described with integration of Electronic Band Gap (EBG) structure. The microstrip patch antenna and EBG structure are made up of polyester material with a dielectric constant of 1.4 and thickness of 2.85mm. Copper sheets with thickness of 35micron are used as conducting material. The back radiations of the antenna are reduced for both 1800MHz and 2.45GHz respectively after integrating with the EBG structure. The simulated return loss and radiation pattern are presented in this paper for both conditions. The simulated results shows that the radiation characteristics of the proposed design are significantly improved when compared to microstrip patch antenna without EBG. The proposed antenna has a compact size, and operates at dual band making it suitable for telemedicine use in Industrial Scientific Medical band, military and rescue system.
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