Ambient RF Energy Harvesting System Based on Wide Angle Metamaterial Absorber for Battery-Less Wireless Sensors

Quang Minh Dinh, M. Le
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引用次数: 1

Abstract

In this paper, a wide – angle rectenna based on metamaterial absorber is proposed. By using the absorbing surface consists of multiple periodically arranged unit cells, the proposed ambient RF energy harvesting device can power sufficient DC power for a wireless sensor from the ambient RF sources in environment. The rectifiers employed in this rectenna system are optimized to have a RF-DC conversion efficiency of 38% and 50% at very low input power of -10 dBm and -5 dBm, respectively. The symmetric unit cells are designed to yield a high absorptivity at wide incident angle in both H plane and E plane and by attaching two rectifiers for each one of them, the device is able to achieve a wide – angle dual – polarized operation up to 140 degrees. Numerical simulations are conducted to validate the design while a comparison to previously introduced rectennas is also provided to elucidate the advantages of the ambient RF energy harvesting system in this work.
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基于广角超材料吸收体的无电池无线传感器环境射频能量收集系统
本文提出了一种基于超材料吸收体的广角整流天线。利用由多个周期性排列的单元组成的吸收面,所设计的环境射频能量收集装置可以从环境中的射频源中为无线传感器提供足够的直流电源。在极低的输入功率为-10 dBm和-5 dBm时,该整流器系统的RF-DC转换效率分别为38%和50%。对称的单晶片被设计为在H面和E面宽入射角下产生高吸收率,并且通过为每个单晶片附加两个整流器,该装置能够实现高达140度的广角双偏振操作。数值模拟验证了该设计,并与之前介绍的整流天线进行了比较,以阐明环境射频能量收集系统在本工作中的优势。
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