Jorge Santiago-Amaya, Diego Escamilla-Amador, F. Trejo-Macotela, D. Robles-Camarillo
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引用次数: 0
摘要
医疗技术的进步表明,植入式医疗设备或智能医院设备(SHD)的应用可以加强对慢性疾病的控制和治疗。然而,这些开发成果大多需要电力驱动才能运行,因此使用电池是不可行的。本文介绍了用于制造平面天线的四种不同几何形状的设计和共振分析,以替代非接触式电源。本文使用以前发布的软件[19]来计算每种线圈设计的电气参数。在实验室条件下进行了操作试验,并使用 3D 打印机制造的聚乳酸(PLA)支架来精确定义线圈之间的距离,以实现线圈之间的正确对齐。根据实验结果,可以计算出间距为 5 毫米的感应链路的谐振频率。同样,也可以计算出改善不同发射器-接收器平面天线对谐振回路所需的电容效应。在这些链路中感应电压的最有效组合是使用六边形轮廓设计作为发射器和接收器天线,施加频率为 8 MHz 的正弦信号。
Planar antenna design for contactless energizing applications: resonance analysis
Advances in medical technology suggest that the application of implantable medical devices or Smart Hospital Devices (SHD) can enhance the control and treatment of chronic disorders. However, most of these developments require an electrical power source for operation, making the use of batteries unfeasible. This paper presents the design and resonance analysis of four different geometries for the fabrication of planar antennas as an alternative to a contactless power supply. Previously published software [19] was used to calculate the electrical parameters for each coil design. Operating trials were executed under laboratory conditions, and a bracket manufactured using polylactic acid (PLA) through a 3D printer was used to accurately define the distances between coils to achieve correct alignment between them. Based on the experimental results, it was possible to calculate the resonant frequency of the inductive links at a 5 mm spacing. Similarly, it is possible to calculate the capacitive effect necessary to improve the resonant circuit in different transmitter-receiver planar antenna pairs. The most efficient combination to induce voltage in these links is to use the hexagonal profile design as a transmitter and receiver antenna, applying a sinusoidal signal with 8 MHz frequency.