A Flexible Wearable Sensor for In Situ Non-Destructive Detection of Plant Leaf Transpiration Information

This paper investigates an in situ, non-destructive detection sensor based on flexible wearable technology that can reflect the intensity of plant transpiration. The sensor integrates four components: a flexible substrate, a humidity-sensing element, a temperature-sensing element, and a self-adhesive film. It is capable of accurately and continuously measuring the temperature, humidity, and vapor pressure deficit (VPD) on the leaf surface, thus providing information on plant transpiration. We combined the humidity-sensitive material graphene oxide (GO) with a PDMS-GO-SDS flexible substrate as the humidity-sensing element of the sensor. This element exhibits high sensitivity, fast response, and excellent biocompatibility with plant interfaces. The humidity monitoring sensitivity of the sensor reaches 4456 pF/% RH, while the temperature sensing element has a sensitivity of approximately 3.93 Ω/°C. Additionally, tracking tests were conducted on tomato plants in a natural environment, and the experimental results were consistent with related research findings. This sensor can be used to monitor plant growth during agricultural production and facilitate precise crop management, helping to advance smart agriculture in the Internet of Things (IoT) for plants.

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Publication Details

Journal
Agriculture
Published
2024-11-28
DOI
https://doi.org/10.3390/agriculture14122174
Citations
18
Primary Topic
Sensor Technology and Measurement Systems
Type
article
Field-Weighted Citation Impact
6.28
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article

A Flexible Wearable Sensor for In Situ Non-Destructive Detection of Plant Leaf Transpiration Information

Hanping Mao, Yongsheng Yu, Ze Liu, Lizhi Li et al.
18 citations
Agriculture
Sensor Technology and Measurement Systems
6.28
article

A Flexible Wearable Sensor for In Situ Non-Destructive Detection of Plant Leaf Transpiration Information

Hanping Mao, Yongsheng Yu, Ze Liu, Lizhi Li, Zhikang Li, Yazhou Wei, Mingxue Zhao
article en
18 citations

Abstract

This paper investigates an in situ, non-destructive detection sensor based on flexible wearable technology that can reflect the intensity of plant transpiration. The sensor integrates four components: a flexible substrate, a humidity-sensing element, a temperature-sensing element, and a self-adhesive film. It is capable of accurately and continuously measuring the temperature, humidity, and vapor pressure deficit (VPD) on the leaf surface, thus providing information on plant transpiration. We combined the humidity-sensitive material graphene oxide (GO) with a PDMS-GO-SDS flexible substrate as the humidity-sensing element of the sensor. This element exhibits high sensitivity, fast response, and excellent biocompatibility with plant interfaces. The humidity monitoring sensitivity of the sensor reaches 4456 pF/% RH, while the temperature sensing element has a sensitivity of approximately 3.93 Ω/°C. Additionally, tracking tests were conducted on tomato plants in a natural environment, and the experimental results were consistent with related research findings. This sensor can be used to monitor plant growth during agricultural production and facilitate precise crop management, helping to advance smart agriculture in the Internet of Things (IoT) for plants.

AgricultureVol. 14(12)
Jiangsu University (CN)
Zero hunger
Openalex Percentile: Top 3%
Sensor Technology and Measurement Systems
6.28
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