Camel: Context-Aware Magnetic MIMO Wireless Power Transfer with In-band Communication

Hao Zhou, Zhao Chen, Wangqiu Zhou, Hailun Tan, Panlong Yang, Xiangyang Li
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引用次数: 9

Abstract

Wireless power transfer (e.g., based on RF or magnetic) enables convenient device-charging, and triggers innovative applications that typically call for faster, smarter, economic, and even simultaneous adaptive charging for multiple smart-devices. Designing such a wireless charging system meeting these multi-requirements faces critical challenges, mainly including the better understanding of real-time energy receivers’ status and the power-transferring channels, the limited capability and the smart coordination of the transmitters and receivers. In this work, we devise Camel, a context-aware MIMO MRC-WPT (magnetic resonant coupling-based wireless power transfer) system, which enables adaptive charging of multiple devices simultaneously with a novel context sensing scheme. In Camel, we craft an innovative MIMO WPT channels’ state estimation and collision-aware in-band parallel communication among multiple transmitters and receivers. We design and implement the Camel prototype and conduct extensive experimental studies. The results validate our design and demonstrate that Camel can support simultaneous charging of as many as 10 devices, high-speed context sensing within 50 milliseconds, and efficient parallel communication among transceivers within proximity of ~0.5m.
驼峰:环境感知磁MIMO无线功率传输带内通信
无线电力传输(例如,基于射频或磁性)可以方便地为设备充电,并触发创新应用,这些应用通常要求对多个智能设备进行更快、更智能、更经济甚至同时自适应充电。设计这样一个满足这些多重需求的无线充电系统面临着严峻的挑战,主要包括更好地了解实时能量接收器的状态和能量传输通道,有限的能力和发射器和接收器的智能协调。在这项工作中,我们设计骆驼,上下文感知文中MRC-WPT(磁谐振coupling-based无线电力传输系统,使自适应的多个设备同时充电小说环境传感方案。在Camel中,我们制作了一种创新的MIMO WPT信道状态估计和多个发射器和接收器之间的冲突感知带内并行通信。我们设计和实施Camel原型,并进行广泛的实验研究。结果验证了我们的设计,并证明Camel可以支持多达10个设备同时充电,在50毫秒内实现高速上下文感知,并在约0.5m范围内实现收发器之间的高效并行通信。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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