用于无线生物遥测应用的双频PIFA天线的设计与开发

P. Soontornpipit, P. Satitvipawee
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引用次数: 4

摘要

针对无线生物遥测应用对更快的数据通信和更好的天线性能的高要求,本研究提出了一种双频PIFA天线。特别是糖尿病等复杂的慢性疾病患者,他们的生物医学设备需要更稳定的无线传感器和天线。该天线的设计和开发适用于两个频率范围,402-405兆赫用于医疗植入通信服务(MICS), 1427-1432兆赫用于无线医疗遥测服务(WMTS)频段。选择Rogers R03210作为材料层,覆盖天线并保持结构的生物相容性。天线的设计不考虑人体组织中不同葡萄糖水平的变化。采用遗传算法优化后的天线尺寸为23.6mm × 19.4mm × 2.4mm。利用XFDTD模拟器对天线进行了设计,并在TX-151组织中进行了仿真验证。结果表明,−10dB带宽的仿真和测量值之间是可接受的。虽然由于天线尺寸和权重函数的影响,在MICS频段的结果更好,但在WMTS频段仍然表现出良好的一致性。每个频带上的差异是由衬底和衬底之间的间隙得出的。该植入天线的输入功率应限制在3.16 mW以下。
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Design and Development of a Dual-Band PIFA Antenna for Wireless Biotelemetry Applications
This study presents a dual-band PIFA antenna for wireless biotelemetry applications as there are high demands for faster data communication and batter antenna performance. Especially patients in the complicated chronic illness such as diabetes required more stable wireless sensor and antenna in their biomedical devices. The antenna is designed and developed for operating at two frequency ranges, 402–405 MHz for Medical Implant Communications Service (MICS) and 1427–1432 MHz for Wireless Medical Telemetry Service (WMTS) bands. Rogers R03210 is selected as material layers to cover the antenna and preserve the biocompatibility of the structure. The antenna is designed regardless for the changes of different glucose levels in human tissues. The optimized antenna, using genetic algorithms, has dimensions of 23.6mm × 19.4mm × 2.4mm. The antenna is designed using XFDTD simulator, and the prototype is verified in a TX-151 tissue which is a mimicking solution. The results showed acceptances between simulation and measurement for the −10dB bandwidths. While the result was better at the MICS band due to the antenna dimension and the weight function, it still showed the decent agreement in the WMTS band. The differences on each frequency band are found from the gap between substrate and superstrate. The input power for this implanted antenna should be limited below 3.16 mW.
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