用于医疗植入物的无线电力传输

K. Poudel, Madhav Pant
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引用次数: 0

摘要

随着时间的推移,无线电力传输能力不断增强,能够适应各种应用。本文介绍了医疗植入物设计中的现代无线传输方法,可以克服传统的电池供电植入物。指出了远场感应功率传输的各种优点,并清楚地说明了植入物在人体中的建模方法。利用等效圆柱体层的特性,对植入物在人体内的最大功率利用率进行了建模。采用射频、微波自动化软件Advanced Design System匹配源阻抗和负载阻抗,利用simplover软件计算植入体所利用的电压,利用ANSYS HFSS软件在真实环境中对植入体进行建模,模拟整个方案设计。所设计的植入体可驱动植入体消耗功率高达0.1135 mW。考虑到ICNIRP标准,这种植入物的定性设计和分析也可用于其他医疗应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wireless Power Transfer for Medical Implants
Wireless power transfer has enhanced its capability and been able to suit itself for various applications with pace of time. This paper presents modern wireless power transfer methods in medical implants design that can possibly overcome the traditional battery operated implants. Various advantages of far field inductive power transfer is pointed and the way to model the implants inside the human body is clearly illustrated. The modelling of maximum power utilization by the implant inside the human body is demonstrated using the equivalent cylinder layers properties. Advanced Design System, a automation software for RF, microwave is used to match the source and load impedance, Simplorer to calculate the voltage utilized by the implant and ANSYS HFSS to model implant in real environment is used to simulate overall project design. This designed implant can drive the implant consuming power up-to 0.1135 mW. The qualitative design and analysis of such implant could also be used on other medical applications considering ICNIRP criteria.
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