一种用于超小型平台的双天线、263 ghz CMOS能量采集器,在−8 dBm输入功率下,rf - dc转换效率为13.6%

Muhammad Ibrahim Wasiq Khan, Eunseok Lee, N. Monroe, A. Chandrakasan, R. Han
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引用次数: 2

摘要

为了实现超小型平台的无线供电,本文报道了一种工作在目前报道的最高频率(263 GHz)的CMOS能量采集器。为了在低可用辐射功率下最大限度地提高太赫兹到直流的转换效率n,采集器不仅采用了高速22nm FinFET晶体管,而且还实现了器件的最佳工作条件。具体而言,该电路实现了自门偏置;并通过双天线拓扑结构,以最优电压相位差和功率比同时精确驱动晶体管漏极和栅极端子。在−8 dBm的低输入功率下,采集器实现了13.6%的测量转换效率,并为1- kΩ负载提供22 μ W。在不依赖任何外部组件的情况下,收割机芯片占地面积为0.61 × 0.93 mm 2。
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A Dual-Antenna, 263-GHz Energy Harvester in CMOS for Ultra-Miniaturized Platforms with 13.6% RF-to-DC Conversion Efficiency at −8 dBm Input Power
This paper reports a CMOS energy harvester, which operates at so far the highest reported frequency (263 GHz) in order to realize wireless powering of ultra-miniaturized platforms. To maximize the THz-to-DC conversion efficiency, n, at low available radiation power, the harvester not only utilizes a high-speed 22-nm FinFET transistor but also achieves the optimal operating conditions of the device. In specific, the circuit enables self-gate biasing; and through a dual-antenna topology, it drives the transistor drain and gate terminals with both optimal voltage phase difference and power ratio simultaneously and precisely. With a low input power of −8 dBm, the harvester achieves 13.6% measured conversion efficiency and delivers 22 µW to a 1- kΩ load. Without relying on any external component, the harvester chip occupies an area of 0.61 × 0.93 mm 2.
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