Piezoceramic Electrodynamic Wireless Power Receiver Using Torsion Mode Meandering Suspension

M. A. Halim, J. Samman, S. Smith, D. Arnold
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引用次数: 6

Abstract

This paper reports the design, fabrication and experimental characterization of an electrodynamic wireless power transmission (WPT) receiver that utilizes a meander-shaped suspension and two piezo-ceramic transducers to achieve up to 8.2 mW/cm$^{3}\cdot$ mT2 normalized power density (NPD). The system operates at its torsion mode mechanical resonance of 211 Hz. The 2.5 cm3 prototype generates 3.3 mW average power (1.3 mW/cm3 power density) at a distance of 3 cm from a transmitter coil that is operating at the maximum allowable human exposure limit (a maximum 2 mTrms field generated at the center of the coil). Compared to prior works, the proposed design affords the use of multiple piezo transducers within a compact footprint while maintaining a form factor suitable for low-profile system implementation for bio-implantable and wearable applications.
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基于扭转模式弯曲悬挂的压电陶瓷电动力无线电源接收器
本文报道了一种电动无线电力传输(WPT)接收器的设计、制造和实验表征,该接收器利用弯曲状悬架和两个压电陶瓷换能器实现高达8.2 mW/cm$^{3}\cdot$ mT2的归一化功率密度(NPD)。该系统在211赫兹的扭转模式机械共振下运行。2.5 cm3的原型产生3.3 mW的平均功率(1.3 mW/cm3的功率密度),距离发射器线圈3厘米,在最大允许的人体暴露极限下工作(线圈中心产生最大2 mTrms的场)。与之前的工作相比,提出的设计提供了在紧凑的占地面积内使用多个压电换能器,同时保持了适合生物植入式和可穿戴应用的低姿态系统实施的外形因素。
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