Wearable Leather-Based Electronics for Respiration Monitoring

Ruijie Xie; Qinjie Du; Binghua Zou; Yuanyuan Chen; Kang Zhang; Yihan Liu; Jiayuan Liang; Bing Zheng; Sheng Li; Weina Zhang; Jiansheng Wu; Fengwei Huo

doi:10.1021/acsabm.9b00082

Wearable Leather-Based Electronics for Respiration Monitoring

Ruijie Xie, Qinjie Du, Binghua Zou, Yuanyuan Chen, Kang Zhang, Yihan Liu, Jiayuan Liang, Bing Zheng, Sheng Li, Weina Zhang, Jiansheng Wu, Fengwei Huo

SCHOOL OF FLEXIBLE ELECTRONICS(FUTURE TECHNOLOGIES)|INSTITUTE OF ADVANCED MATERIALS(IAM)

Nanjing Tech University

Research output: Contribution to journal › Article › peer-review

44 Scopus citations

Abstract

This article presents a leather-based respiration sensor based on the ionic conductivity change of leather, caused by humidity variation during breathing. Leather was applied as a flexible substrate due to its biocompatibility, hydroscopicity, porosity, and ionic conductivity. Printing method was employed to fabricate the sensor, which could convert human respiration to electrical signals. By combining the leather with silver nanowires (AgNWs), data about human respiration rate, respiration depth, and respiration pattern can be acquired easily through a noninvasive way. Such sensor could work tens of hours consecutively due to the unique properties of leather.

Original language	English
Pages (from-to)	1427-1431
Number of pages	5
Journal	ACS Applied Bio Materials
Volume	2
Issue number	4
DOIs	https://doi.org/10.1021/acsabm.9b00082
State	Published - 15 Apr 2019

Keywords

flexible electronics
humidity monitoring
ionic conductivity
leather
respiration monitoring

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10.1021/acsabm.9b00082

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title = "Wearable Leather-Based Electronics for Respiration Monitoring",

abstract = "This article presents a leather-based respiration sensor based on the ionic conductivity change of leather, caused by humidity variation during breathing. Leather was applied as a flexible substrate due to its biocompatibility, hydroscopicity, porosity, and ionic conductivity. Printing method was employed to fabricate the sensor, which could convert human respiration to electrical signals. By combining the leather with silver nanowires (AgNWs), data about human respiration rate, respiration depth, and respiration pattern can be acquired easily through a noninvasive way. Such sensor could work tens of hours consecutively due to the unique properties of leather.",

keywords = "flexible electronics, humidity monitoring, ionic conductivity, leather, respiration monitoring",

author = "Ruijie Xie and Qinjie Du and Binghua Zou and Yuanyuan Chen and Kang Zhang and Yihan Liu and Jiayuan Liang and Bing Zheng and Sheng Li and Weina Zhang and Jiansheng Wu and Fengwei Huo",

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doi = "10.1021/acsabm.9b00082",

language = "英语",

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T1 - Wearable Leather-Based Electronics for Respiration Monitoring

AU - Xie, Ruijie

AU - Du, Qinjie

AU - Zou, Binghua

AU - Chen, Yuanyuan

AU - Zhang, Kang

AU - Liu, Yihan

AU - Liang, Jiayuan

AU - Zheng, Bing

AU - Li, Sheng

AU - Zhang, Weina

AU - Wu, Jiansheng

AU - Huo, Fengwei

PY - 2019/4/15

Y1 - 2019/4/15

N2 - This article presents a leather-based respiration sensor based on the ionic conductivity change of leather, caused by humidity variation during breathing. Leather was applied as a flexible substrate due to its biocompatibility, hydroscopicity, porosity, and ionic conductivity. Printing method was employed to fabricate the sensor, which could convert human respiration to electrical signals. By combining the leather with silver nanowires (AgNWs), data about human respiration rate, respiration depth, and respiration pattern can be acquired easily through a noninvasive way. Such sensor could work tens of hours consecutively due to the unique properties of leather.

AB - This article presents a leather-based respiration sensor based on the ionic conductivity change of leather, caused by humidity variation during breathing. Leather was applied as a flexible substrate due to its biocompatibility, hydroscopicity, porosity, and ionic conductivity. Printing method was employed to fabricate the sensor, which could convert human respiration to electrical signals. By combining the leather with silver nanowires (AgNWs), data about human respiration rate, respiration depth, and respiration pattern can be acquired easily through a noninvasive way. Such sensor could work tens of hours consecutively due to the unique properties of leather.

KW - flexible electronics

KW - humidity monitoring

KW - ionic conductivity

KW - leather

KW - respiration monitoring

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M3 - 文章

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SP - 1427

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JO - ACS Applied Bio Materials

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ER -

Wearable Leather-Based Electronics for Respiration Monitoring

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Keywords

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