结合EBG地基的弯曲线植入天线解剖逼真模型性能评价

Sadia Sultana, R. Basak
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引用次数: 0

摘要

研究了一种满足超宽带要求的独特设计和弯曲线植入天线。设计的天线与基于电磁带隙(EBG)结构的地平面相结合,提高了天线的性能。本文采用矩形电磁带隙结构来评价天线的性能。这种紧凑高效的MLA天线可用于改善许多植入式场景和生物医学应用的天线性能。所提出的EGB地平面天线既针对人体简化模型,又针对人体解剖真实模型进行了设计,并在生物环境中实现了性能。为了更准确地验证植入式天线的结果,采用解剖逼真的人体模型进行了仿真分析。最终设计的整体尺寸为15.2 x 8.8 m2。天线的厚度约为0.8 mm。基板材料选用FR4,贴片材料选用Copper。天线是封闭的生物相容性材料,组织内部有硅,以保护患者的安全。对该天线的S11参数、远场(辐射方向图)、驻波比、效率、方向性、增益等重要参数进行了计算和测量。对比分析了不同衬底材料和贴片材料的S11参数。基于安全考虑,研究了可植入天线的辐射机理和改进设计,降低了天线的比吸收率。所有的仿真结果和测量都是在CST微波工作室获得的,以验证设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance Evaluation of Meander Line Implantable Antenna integrated with EBG Based Ground for Anatomical Realistic Model
A unique design and meander line implantable antenna is examined in this paper which satisfies the requirements of ultra-wide band. The designed antenna is integrated with the electromagnetic band gap (EBG) structure based ground plane to enhance the performance. Rectangular electromagnetic band gap (EBG) structures are represented here to evaluate the antenna performance. This compact and efficient MLA antenna is applied to improve the antenna performance for numerous implantable scenarios and biomedical applications. The proposed antenna with EGB ground plane is designed for both the simplified model and anatomical realistic models for the human body and executed the performance in bio-environment. To approve the results of implantable antennas more correctly, simulation is analyzed using anatomical realistic human models. The ultimate design has the whole dimension is 15.2 x 8.8 m2. The thickness of the antenna is about 0.8 mm. FR4 is chosen as the substrate material and Copper is chosen as the patch material. The antenna is enclosed biocompatible material with silicon inside the tissue in order to protect patient safety. Significant parameters such as S11 parameter, Far field (radiation pattern), VSWR, Efficiency, Directivity, Gain of the proposed antenna have calculated and measured the performance both the simplified and realistic human models. Comparison Analysis of S11 parameter for different substrate materials and patch materials have observed. The radiation mechanism and modified design of the implantable antenna reducing Specific Absorption Rate (SAR) for safety issues. All the simulation results and measurements are obtained from CST Microwave Studio to validate the design.
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