Turbocharging Deep Backscatter Through Constructive Power Surges with a Single RF Source

Zhenlin An, Qiongzheng Lin, Qingrui Pan, Lei Yang
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引用次数: 3

Abstract

Backscatter networks are becoming a promising solution for embedded sensing. In these networks, backscatter sensors are deeply implanted inside objects or living beings and form a deep backscatter network (DBN). The fundamental challenges in DBNs are the significant attenuation of the wireless signal caused by environmental materials (e.g., water and bodily tissues) and the miniature antennas of the implantable backscatter sensors, which prevent existing backscatter networks from powering sensors beyond superficial depths. This study presents RiCharge, a turbocharging solution that enables powering up and communicating with DBNs through a single augmented RF source, which allows existing backscatter sensors to serve DBNs at zero startup cost. The key contribution of RiCharge is the turbocharging algorithm that utilizes RF surges to induce constructive power surges at deep backscatter sensors in accordance with the FCC regulations, for overcoming the turn-on voltage barrier. RiCharge is implemented in commodity devices, and the evaluation result reveals that RiCharge can use only a single RF source to power up backscatter sensors at 60 m distance in the air (i.e., 10x longer than a commercial off-the-shelf reader) and 50 cm-depth under water (i.e., 2x deeper than the previous record).
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涡轮增压深后向散射通过建设性功率浪涌与单一射频源
反向散射网络正成为嵌入式传感的一种很有前途的解决方案。在这些网络中,反向散射传感器被深度植入物体或生物体内,形成一个深度反向散射网络(DBN)。dbn的基本挑战是由环境材料(例如水和身体组织)和植入式反向散射传感器的微型天线引起的无线信号的显着衰减,这阻止了现有的反向散射网络为超过浅层深度的传感器供电。本研究提出了一种涡轮增压解决方案,通过单个增强射频源为dbn供电并与之通信,使现有的反向散射传感器能够以零启动成本为dbn服务。rich的关键贡献是涡轮增压算法,该算法利用射频浪涌在深度反向散射传感器上诱导建设性功率浪涌,以克服导通电压障碍,符合FCC规定。在商品设备中实现了riccharge,评估结果显示,riccharge可以仅使用单个射频源在空中60米距离(即比商业现成的读取器长10倍)和水下50厘米深度(即比以前的记录深2倍)为后向散射传感器供电。
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