Energy harvesting and wireless power transfer in a unified system for wearable devices

B. Truong, Caleb Roundy, R. Rantz, S. Roundy
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Abstract

This paper presents a device concept that allows us to utilize the coils of an electromagnetic vibration-based energy harvester as a receiver for a magnetic resonant coupled wireless power transfer system (WPTS), with focus on low-power wearable applications. The parasitic capacitances of the coils along with their inductances form a single equivalent receiver coil configured in parallel. This self-resonance characteristic relaxes the requirement of adding an additional capacitor and still retains the system inherent simplicity. Measurements with an arbitrarily chosen load resistance of $R_{L}\,= 100 \Omega$ demonstrate a generated power of $\sim 397.4 \mu W$ at a distance between the transmitter and receiver of 2 cm at a root mean square applied $\mathbf{B}$ – field of $200 \mu T$, approximately.
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用于可穿戴设备的统一系统中的能量收集和无线电力传输
本文提出了一种设备概念,使我们能够利用基于电磁振动的能量采集器线圈作为磁谐振耦合无线电力传输系统(WPTS)的接收器,重点是低功耗可穿戴应用。线圈的寄生电容与其电感形成并联配置的单个等效接收线圈。这种自谐振特性放宽了增加额外电容器的要求,仍然保留了系统固有的简单性。任意选择负载电阻$R_{L}\,= 100 \Omega$的测量表明,在发射机和接收机之间的距离为2厘米处,施加$\mathbf{B}$ -场的均方根为$200 \mu T$,产生的功率约为$\sim 397.4 \mu W$。
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