Unverified paper record
Highly Stretchable and Reliable Graphene-Based Strain Sensor for Plant Health Monitoring and Deep Learning-Assisted Crop Recognition
Research · 7 Oct 2025 · 10.34133/research.0933
Abstract
Stretchable sensors hold great potential for monitoring plant physiological parameters and enabling crop identification in smart agriculture. However, achieving long-term, stable, reliable monitoring of plants in dynamic environments, as well as improving crop identification accuracy, remains a substantial challenge, primarily due to the limited biocompatibility of conventional stretchable sensors. Here, we present a highly stretchable and reliable strain sensor based on a graphene/Ecoflex composite. This sensor features a mesh structure that combines graphene's high electrical conductivity and strain sensitivity with Ecoflex's excellent stretchability, biocompatibility, and resistance to environmental degradation. By structural optimization, the sensor achieves high sensitivity (gauge factor = 138), a low detection limit (0.1% strain), and high reliability (over 1,500 cycles), along with waterproofing and resistance to both acidic and alkaline conditions. Furthermore, the sensor conforms tightly to various plant leaves and stems without hindering growth, enabling real-time monitoring of plant growth patterns and in situ detection of mechanical damage to predict plant stress. Moreover, assisted by deep learning, it precisely classifies 8 crop types with an accuracy of 95.2%. These demonstrate that stretchable sensors based on mesh graphene/Ecoflex can operate reliably in outdoor agricultural environments even in the face of variable climatic and chemical conditions, providing a practical platform for advancing plant phenomics and smart agricultural robotics.
Plant phenotyping relevance
植物の成長パターンと機械的損傷・ストレスを測定する伸縮性センサーを開発・性能評価しており、植物表現型取得プラットフォームが中心である。
abstractHere, we present a highly stretchable and reliable strain sensor based on a graphene/Ecoflex composite.
abstractenabling real-time monitoring of plant growth patterns and in situ detection of mechanical damage to predict plant stress
abstractproviding a practical platform for advancing plant phenomics and smart agricultural robotics.
Code and data availability
The paper reports plant-wearable strain sensor measurements and an MLP crop-classification model, but provides no public repository, dataset, or code URL. The Data Availability statement says source data are available only from corresponding authors upon reasonable request; the supplementary zip contains figures/tables
No evidence-backed public reproduction asset is currently recorded.
This is an automatically classified, unverified record. Curator approval is required before any resource enters the Catalog.