PlantRing: A high-throughput wearable sensor system for decoding plant growth, water relations, and innovating irrigation

The integration of flexible electronics with plant science has generated various plant-wearable sensors, yet challenges persist in their application to real-world agriculture, particularly in high-throughput settings. Overcoming the trade-off between sensing sensitivity and range, adapting sensors to a wide range of crop types, and bridging the gap between sensor measurements and biological understandings remain primary obstacles. Here, we introduce PlantRing, an innovative, nano-flexible sensing system designed to address these challenges. PlantRing employs bio-sourced carbonized silk georgette as the strain-sensing material, offering an exceptional detection limit (0.03%-0.17% strain, depending on sensor model), high stretchability (tensile strain up to 100%), and remarkable durability (season-long use). PlantRing effectively monitors plant growth and water status by measuring organ circumference dynamics, performing reliably under harsh conditions, and adapting to a wide range of plant species. Applying PlantRing to study fruit cracking in tomato and watermelon has revealed a novel hydraulic mechanism characterized by genotype-specific excess sap flow within the plant to fruiting branches. Its high-throughput application has enabled large-scale quantification of stomatal sensitivity to soil drought-a long-standing aspiration in plant biology-facilitating the selection of drought-tolerant germplasm. Combining PlantRing with a soybean mutant has led to the discovery of a potential novel function of the circadian clock gene GmLNK2 in stomatal regulation. More practically, integrating PlantRing into feedback irrigation achieves simultaneous water conservation and quality improvement, signifying a paradigm shift from reliance on experience or environmental cues to plant-based feedback control. Collectively, PlantRing represents a groundbreaking tool poised to revolutionize botanical studies, agriculture, and forestry.

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Publication Details

Journal
Plant Communications
Published
2025-03-26
DOI
https://doi.org/10.1016/j.xplc.2025.101322
Citations
19
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
33.25

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article

PlantRing: A high-throughput wearable sensor system for decoding plant growth, water relations, and innovating irrigation

Yunxiu Liu, Mei Zou, Ting Sun, Huasen Wang et al.
19 citations
Plant Communications
Smart Agriculture and AI
33.25
article

PlantRing: A high-throughput wearable sensor system for decoding plant growth, water relations, and innovating irrigation

Yunxiu Liu, Mei Zou, Ting Sun, Huasen Wang, Pei Xu, Bi Peng, Qiguang Xie, Yingying Zhang, Zheng Shi, Xiaodong Xu, Wenbo Xu, Rujia Jiang, Chueh‐Hsuan Lu, Rui Cheng
article en
19 citations

Abstract

The integration of flexible electronics with plant science has generated various plant-wearable sensors, yet challenges persist in their application to real-world agriculture, particularly in high-throughput settings. Overcoming the trade-off between sensing sensitivity and range, adapting sensors to a wide range of crop types, and bridging the gap between sensor measurements and biological understandings remain primary obstacles. Here, we introduce PlantRing, an innovative, nano-flexible sensing system designed to address these challenges. PlantRing employs bio-sourced carbonized silk georgette as the strain-sensing material, offering an exceptional detection limit (0.03%-0.17% strain, depending on sensor model), high stretchability (tensile strain up to 100%), and remarkable durability (season-long use). PlantRing effectively monitors plant growth and water status by measuring organ circumference dynamics, performing reliably under harsh conditions, and adapting to a wide range of plant species. Applying PlantRing to study fruit cracking in tomato and watermelon has revealed a novel hydraulic mechanism characterized by genotype-specific excess sap flow within the plant to fruiting branches. Its high-throughput application has enabled large-scale quantification of stomatal sensitivity to soil drought-a long-standing aspiration in plant biology-facilitating the selection of drought-tolerant germplasm. Combining PlantRing with a soybean mutant has led to the discovery of a potential novel function of the circadian clock gene GmLNK2 in stomatal regulation. More practically, integrating PlantRing into feedback irrigation achieves simultaneous water conservation and quality improvement, signifying a paradigm shift from reliance on experience or environmental cues to plant-based feedback control. Collectively, PlantRing represents a groundbreaking tool poised to revolutionize botanical studies, agriculture, and forestry.

Plant CommunicationsVol. 6(5)
Qingdao Agricultural University (CN), Henan University (CN), Huaiyin Institute of Technology (CN), China Jiliang University (CN), Tsinghua University (CN)
Department of Agriculture and Rural Affairs of Zhejiang Province
Clean water and sanitation
Openalex Percentile: Top 0%
Smart Agriculture and AI
33.25
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