用于生物医学植入物的小型化双频矩形螺旋环天线

A. M. Mahfouz, O. Haraz, A. Ibraheem
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摘要

环形天线具有比吸收率低、不受人体电性能变化影响的特点。电耦合环路天线(ECLA)作为PIFA单频段和多频段的双天线被引入。为了使ECLA小型化,已经使用了集总电容器。然而,这种小型化技术存在对准问题,特别是在多波段操作时。本文介绍了一种新型的微型化技术。该方法除了增加重叠回路形成的匹配电容外,还通过包裹另一个回路来增加环路电感。所提出的尺寸为13×13×3mm3的天线已在人体头部模型中进行了模拟,设计用于医疗植入通信服务(MICS) 402-405 MHz和工业科学医疗(ISM) 2.4-2.48 GHz频段,没有集总电容器。1 gm平均SAR的峰值分别为92.8和105.6 W/Kg,两个波段的峰值实现增益分别为-29.5和-22.5 dbi。
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A Miniaturized Dual Band Rectangular Spiral Loop Antenna for Biomedical Implants
Loop antennas have low specific absorption rate (SAR) and immune against the changes of the electrical properties of the human body. Electrically coupled loop antenna (ECLA) has been introduced as a dual for PIFA for single and multiband operation. To miniaturize ECLA, lumped capacitors have been used. However, this miniaturization technique has alignment problems, especially for multiband operation. Through this paper, a novel miniaturization technique is introduced. The proposed method depends on increasing loop inductance through wrapping another loop in addition to increasing matching capacitor which formed by the overlapped loops. The proposed antenna with size of 13×13×3mm3 has been simulated inside human head model and designed to operate at medical implants communications services (MICS) 402-405 MHz and industrial scientific medical (ISM) 2.4-2.48 GHz bands without lumped capacitors. The peak value of the 1 gm averaged SAR is 92.8 and 105.6 W/Kg whereas the peak realized gain is -29.5 and -22.5 dbi for both bands, respectively.
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