基板集成波导纺织天线作为能量收集平台

S. Lemey, H. Rogier
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引用次数: 6

摘要

纺织多天线系统是智能织物和交互式纺织品(SFIT)系统的关键组成部分,因为它们建立了可靠和节能的以身体为中心的无线通信链路。在这项工作中,我们研究了如何通过利用其表面作为能量收集和电源管理平台来进一步扩展其功能。我们提供了选择合适的天线拓扑的指南,并描述了一个合适的集成程序。我们通过将两个柔性太阳能电池、一个微能量电池和一个柔性电源管理系统集成到一个精心选择的可穿戴衬底集成波导腔背纺织槽天线上,在不影响其性能的情况下,演示了这种方法,以实现从太阳能和人造光中收集能量。此外,紧凑且高度集成的收集模块提供用于连接热电发电机的终端,从而实现热体能量收集。在真实的室内环境中进行的测量表明,这种混合能量收集方法利用了更连续的清除能量流,可以在大多数室内和室外场景中进行能量清除。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Substrate integrated waveguide textile antennas as energy harvesting platforms
Textile multi-antenna systems are key components of smart fabric and interactive textile (SFIT) systems, as they establish reliable and energy-efficient wireless body-centric communication links. In this work, we investigate how their functionality can further be extended by exploiting their surface as an energy harvesting and power management platform. We provide guidelines for selecting an appropriate antenna topology and describe a suitable integration procedure. We demonstrate this approach by integrating two flexible solar cells, a micro-energy cell and a flexible power management system onto a well-chosen wearable substrate integrated waveguide cavity-backed textile slot antenna, without affecting its performance, to enable energy harvesting from solar and artificial light. In addition, the compact and highly-integrated harvesting module provides a terminal for connecting a thermoelectric generator, enabling thermal body energy harvesting. Measurements in a realistic indoor environment have demonstrated that this hybrid energy harvesting approach leverages a more continuous flow of scavenged energy, enabling energy scavenging in most of the indoor and outdoor scenarios.
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