Wearable Antennas for On-Body Motion Detection

Umar Hasni, E. Topsakal
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引用次数: 3

Abstract

Applications in the field of wearable electronics have seen significant growth in recent years. The wearable electronics industry itself is expected to grow up to $54 billion by 2023 [1]. Smart watches capable of various IoT and health data acquisition applications account for a significant portion of the wearable market. These devices are capable of extracting health data such as heart and respiratory rate, step count and even EKG snapshots. However, multiple devices are needed for accurate data which directly impacts everyday practicality as at any given moment a finite number of devices can be worn by an individual. With increasing demand for advanced features such as gesture control and high speed (5G) wireless IoT device interface, multiple wearable sensors/devices are needed. This has prompted development of unified wearable electronics where the devices are either part of or made of everyday clothing materials. In this article a novel antenna topology on fabric substrates for on-body motion detection for health monitoring applications is presented. The design process for the antenna fabrication via screen printing on fabric substrates is outlined along with antenna response on human skin.
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用于身体运动检测的可穿戴天线
近年来,可穿戴电子产品领域的应用有了显著的增长。到2023年,可穿戴电子行业本身预计将增长到540亿美元[1]。具有各种物联网和健康数据采集应用的智能手表占据了可穿戴市场的很大一部分。这些设备能够提取健康数据,如心脏和呼吸频率,步数,甚至心电图快照。然而,准确的数据需要多个设备,这直接影响了日常的实用性,因为在任何给定的时刻,一个人可以佩戴的设备数量是有限的。随着对手势控制和高速(5G)无线物联网设备接口等高级功能的需求不断增加,需要多个可穿戴传感器/设备。这促使了统一的可穿戴电子设备的发展,这些设备要么是日常服装材料的一部分,要么是由日常服装材料制成的。本文提出了一种新型的织物基板天线拓扑结构,用于健康监测应用的身体运动检测。概述了通过丝网印刷在织物基板上制造天线的设计过程以及天线在人体皮肤上的响应。
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