Cargando…

Low Hysteresis and Fatigue-Resistant Polyvinyl Alcohol/Activated Charcoal Hydrogel Strain Sensor for Long-Term Stable Plant Growth Monitoring

Flexible strain sensor as a measurement tool plays a significant role in agricultural development by long-term stable monitoring of the dynamic progress of plant growth. However, existing strain sensors still suffer from severe drawbacks, such as large hysteresis, insufficient fatigue resistance, an...

Descripción completa

Detalles Bibliográficos
Autores principales: Wang, Lina, Zhang, Zhilin, Cao, Jie, Zheng, Wenqian, Zhao, Qi, Chen, Wenna, Xu, Xinye, Luo, Xiaoyu, Liu, Qi, Liu, Ximei, Xu, Jingkun, Lu, Baoyang
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9824891/
https://www.ncbi.nlm.nih.gov/pubmed/36616440
http://dx.doi.org/10.3390/polym15010090
_version_ 1784866521453953024
author Wang, Lina
Zhang, Zhilin
Cao, Jie
Zheng, Wenqian
Zhao, Qi
Chen, Wenna
Xu, Xinye
Luo, Xiaoyu
Liu, Qi
Liu, Ximei
Xu, Jingkun
Lu, Baoyang
author_facet Wang, Lina
Zhang, Zhilin
Cao, Jie
Zheng, Wenqian
Zhao, Qi
Chen, Wenna
Xu, Xinye
Luo, Xiaoyu
Liu, Qi
Liu, Ximei
Xu, Jingkun
Lu, Baoyang
author_sort Wang, Lina
collection PubMed
description Flexible strain sensor as a measurement tool plays a significant role in agricultural development by long-term stable monitoring of the dynamic progress of plant growth. However, existing strain sensors still suffer from severe drawbacks, such as large hysteresis, insufficient fatigue resistance, and inferior stability, limiting their broad applications in the long-term monitoring of plant growth. Herein, we fabricate a novel conductive hydrogel strain sensor which is achieved through uniformly dispersing the conductive activated charcoal (AC) in high-viscosity polyvinyl alcohol (PVA) solution forming a continuous conductive network and simple preparation by freezing-thawing. The as-prepared strain sensor demonstrates low hysteresis (<1.5%), fatigue resistance (fatigue threshold of 40.87 J m(−2)), and long-term sensing stability upon mechanical cycling. We further exhibit the integration and application of PVA-AC strain sensor to monitor the growth of plants for 14 days. This work may offer an effective strategy for monitoring plant growth with conductive hydrogel strain sensor, facilitating the advancement of agriculture.
format Online
Article
Text
id pubmed-9824891
institution National Center for Biotechnology Information
language English
publishDate 2022
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-98248912023-01-08 Low Hysteresis and Fatigue-Resistant Polyvinyl Alcohol/Activated Charcoal Hydrogel Strain Sensor for Long-Term Stable Plant Growth Monitoring Wang, Lina Zhang, Zhilin Cao, Jie Zheng, Wenqian Zhao, Qi Chen, Wenna Xu, Xinye Luo, Xiaoyu Liu, Qi Liu, Ximei Xu, Jingkun Lu, Baoyang Polymers (Basel) Article Flexible strain sensor as a measurement tool plays a significant role in agricultural development by long-term stable monitoring of the dynamic progress of plant growth. However, existing strain sensors still suffer from severe drawbacks, such as large hysteresis, insufficient fatigue resistance, and inferior stability, limiting their broad applications in the long-term monitoring of plant growth. Herein, we fabricate a novel conductive hydrogel strain sensor which is achieved through uniformly dispersing the conductive activated charcoal (AC) in high-viscosity polyvinyl alcohol (PVA) solution forming a continuous conductive network and simple preparation by freezing-thawing. The as-prepared strain sensor demonstrates low hysteresis (<1.5%), fatigue resistance (fatigue threshold of 40.87 J m(−2)), and long-term sensing stability upon mechanical cycling. We further exhibit the integration and application of PVA-AC strain sensor to monitor the growth of plants for 14 days. This work may offer an effective strategy for monitoring plant growth with conductive hydrogel strain sensor, facilitating the advancement of agriculture. MDPI 2022-12-26 /pmc/articles/PMC9824891/ /pubmed/36616440 http://dx.doi.org/10.3390/polym15010090 Text en © 2022 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Wang, Lina
Zhang, Zhilin
Cao, Jie
Zheng, Wenqian
Zhao, Qi
Chen, Wenna
Xu, Xinye
Luo, Xiaoyu
Liu, Qi
Liu, Ximei
Xu, Jingkun
Lu, Baoyang
Low Hysteresis and Fatigue-Resistant Polyvinyl Alcohol/Activated Charcoal Hydrogel Strain Sensor for Long-Term Stable Plant Growth Monitoring
title Low Hysteresis and Fatigue-Resistant Polyvinyl Alcohol/Activated Charcoal Hydrogel Strain Sensor for Long-Term Stable Plant Growth Monitoring
title_full Low Hysteresis and Fatigue-Resistant Polyvinyl Alcohol/Activated Charcoal Hydrogel Strain Sensor for Long-Term Stable Plant Growth Monitoring
title_fullStr Low Hysteresis and Fatigue-Resistant Polyvinyl Alcohol/Activated Charcoal Hydrogel Strain Sensor for Long-Term Stable Plant Growth Monitoring
title_full_unstemmed Low Hysteresis and Fatigue-Resistant Polyvinyl Alcohol/Activated Charcoal Hydrogel Strain Sensor for Long-Term Stable Plant Growth Monitoring
title_short Low Hysteresis and Fatigue-Resistant Polyvinyl Alcohol/Activated Charcoal Hydrogel Strain Sensor for Long-Term Stable Plant Growth Monitoring
title_sort low hysteresis and fatigue-resistant polyvinyl alcohol/activated charcoal hydrogel strain sensor for long-term stable plant growth monitoring
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9824891/
https://www.ncbi.nlm.nih.gov/pubmed/36616440
http://dx.doi.org/10.3390/polym15010090
work_keys_str_mv AT wanglina lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT zhangzhilin lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT caojie lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT zhengwenqian lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT zhaoqi lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT chenwenna lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT xuxinye lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT luoxiaoyu lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT liuqi lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT liuximei lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT xujingkun lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring
AT lubaoyang lowhysteresisandfatigueresistantpolyvinylalcoholactivatedcharcoalhydrogelstrainsensorforlongtermstableplantgrowthmonitoring