超材料纺织品可穿戴无线传播与辐射控制

Xi Tian, Qihang Zeng, J. S. Ho
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引用次数: 0

摘要

射频技术对于无线连接的可穿戴设备至关重要,但其性能受到人体对无线信号传播的阻碍。在这次演讲中,我们描述了与欺骗等离子体超材料结构集成的衣服,能够通过诱导附近天线发射的无线信号以表面波的形式在身体周围传播并向四面八方辐射到周围空间来克服这种障碍。我们概述了这些完全由导电纺织品制成的超材料结构的原理和设计,包括欺骗表面等离子体波导,辐射元件和阻抗匹配部分。作为示例,我们演示了一种工作在2.4-2.5 GHz ISM频段的设计,该设计能够将来自身体周围可穿戴天线的辐射重定向到其他受阻的方向。
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Wearable Wireless Propagation and Radiation Control With Metamaterial Textiles
Radio-frequency technologies are crucial for wirelessly connected wearable devices, but their performance is hindered by obstruction of wireless signal propagation by the human body. In this talk, we describe clothing integrated with spoof plasmonic metamaterial structures capable of overcoming this obstruction by inducing wireless signals emitted by nearby antennas to propagate around the body as surface waves and radiate into the surrounding space in all directions. We outline the principles and design of these metamaterial structures, which are fabricated entirely from conductive textiles, including spoof surface plasmon waveguides, radiation elements, and impedance matching sections. As an illustrative example, we demonstrate a design operating in the 2.4-2.5 GHz ISM band capable of redirecting radiation from a wearable antenna around the body into otherwise obstructed directions.
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