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Moisture-resilient graphene-dyed wool fabric for strain sensing

Moisture-resilient graphene-dyed wool fabric for strain sensing
Moisture-resilient graphene-dyed wool fabric for strain sensing
E-textile consisting of natural fabrics has become a promising material to construct wearable sensors due to its comfortability and breathability on the human body. However, the reported fabric-based e-textile materials, such as graphene-treated cotton, silk, and flax, generally suffer from the electrical and mechanical instability in long-term wearing. In particular, fabrics on the human body have to endure heat variation, moisture evaporation from metabolic activities, and even the immersion with body sweat. To face the above challenges, here we report a wool-knitted fabric sensor treated with graphene oxide (GO) dyeing followed by l-ascorbic acid (l-AA) reduction (rGO). This rGO-based strain sensor is highly stretchable, washable, and durable with rapid sensing response. It exhibits excellent linearity with more than 20% elongation and, most importantly, withstand moisture from 30 to 90% (or even immersed with water) and still maintains good electrical and mechanical properties. We further demonstrate that, by integrating this proposed material with the near-field communication (NFC) system, a batteryless, wireless wearable body movement sensor can be constructed. This material can find wide use in smart garment applications.
NFC, dyeing, e-textiles, reduced graphene oxide, strain sensor, wool fabric
1944-8244
13265-13274
Xu, Lulu
8daadc9f-cedf-4ae6-beac-0bb0330ca60c
Liu, Zekun
925463f4-b814-4176-b663-3159958c4fa2
Zhai, Heng
12ea68f8-b926-49f1-9e0c-fbdcbc438b69
Chen, Xiao
1cec5a64-4af7-4858-9352-7cad2b442f69
Sun, Rujie
e3dad16d-6c79-4972-8378-edca28a3babd
Lyu, Shida
bc2053b8-1ba0-4617-bb55-117753ef2db8
Fan, Yangyang
f6221313-6efd-40c2-8d2a-79e5f1c9e6e7
Yi, Yangpeiqi
4c54495d-505b-42e2-b5c9-5545a7c4ccbc
Chen, Zhongda
8075fc3a-5088-4c20-a1ed-31dffe4271bf
Jin, Lu
50fd71e4-a844-4535-97b3-2cca8d55b8b3
Zhang, Jianbao
ea29599e-c4c6-4b78-b14f-97063c77da59
Li, Yi
95a5fe87-ac44-4505-a520-b83c15d48e6e
Ye, Terry T.
67e0b3c1-55b9-48f0-be35-3f027de705ff
Xu, Lulu
8daadc9f-cedf-4ae6-beac-0bb0330ca60c
Liu, Zekun
925463f4-b814-4176-b663-3159958c4fa2
Zhai, Heng
12ea68f8-b926-49f1-9e0c-fbdcbc438b69
Chen, Xiao
1cec5a64-4af7-4858-9352-7cad2b442f69
Sun, Rujie
e3dad16d-6c79-4972-8378-edca28a3babd
Lyu, Shida
bc2053b8-1ba0-4617-bb55-117753ef2db8
Fan, Yangyang
f6221313-6efd-40c2-8d2a-79e5f1c9e6e7
Yi, Yangpeiqi
4c54495d-505b-42e2-b5c9-5545a7c4ccbc
Chen, Zhongda
8075fc3a-5088-4c20-a1ed-31dffe4271bf
Jin, Lu
50fd71e4-a844-4535-97b3-2cca8d55b8b3
Zhang, Jianbao
ea29599e-c4c6-4b78-b14f-97063c77da59
Li, Yi
95a5fe87-ac44-4505-a520-b83c15d48e6e
Ye, Terry T.
67e0b3c1-55b9-48f0-be35-3f027de705ff

Xu, Lulu, Liu, Zekun, Zhai, Heng, Chen, Xiao, Sun, Rujie, Lyu, Shida, Fan, Yangyang, Yi, Yangpeiqi, Chen, Zhongda, Jin, Lu, Zhang, Jianbao, Li, Yi and Ye, Terry T. (2020) Moisture-resilient graphene-dyed wool fabric for strain sensing. ACS Applied Materials and Interfaces, 12 (11), 13265-13274. (doi:10.1021/acsami.9b20964).

Record type: Article

Abstract

E-textile consisting of natural fabrics has become a promising material to construct wearable sensors due to its comfortability and breathability on the human body. However, the reported fabric-based e-textile materials, such as graphene-treated cotton, silk, and flax, generally suffer from the electrical and mechanical instability in long-term wearing. In particular, fabrics on the human body have to endure heat variation, moisture evaporation from metabolic activities, and even the immersion with body sweat. To face the above challenges, here we report a wool-knitted fabric sensor treated with graphene oxide (GO) dyeing followed by l-ascorbic acid (l-AA) reduction (rGO). This rGO-based strain sensor is highly stretchable, washable, and durable with rapid sensing response. It exhibits excellent linearity with more than 20% elongation and, most importantly, withstand moisture from 30 to 90% (or even immersed with water) and still maintains good electrical and mechanical properties. We further demonstrate that, by integrating this proposed material with the near-field communication (NFC) system, a batteryless, wireless wearable body movement sensor can be constructed. This material can find wide use in smart garment applications.

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More information

Accepted/In Press date: 27 February 2020
e-pub ahead of print date: 27 February 2020
Published date: 18 March 2020
Keywords: NFC, dyeing, e-textiles, reduced graphene oxide, strain sensor, wool fabric

Identifiers

Local EPrints ID: 486769
URI: http://eprints.soton.ac.uk/id/eprint/486769
ISSN: 1944-8244
PURE UUID: d0709ce9-5e61-46f7-998c-50902a49af15

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Date deposited: 06 Feb 2024 17:32
Last modified: 17 Mar 2024 07:24

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Contributors

Author: Lulu Xu
Author: Zekun Liu
Author: Heng Zhai
Author: Xiao Chen
Author: Rujie Sun
Author: Shida Lyu
Author: Yangyang Fan
Author: Yangpeiqi Yi
Author: Zhongda Chen
Author: Lu Jin
Author: Jianbao Zhang
Author: Yi Li
Author: Terry T. Ye

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