Modular GrowBox Design for Precision Monitoring of Plant Bioelectrical Signals

Grow boxes are controlled plant growth chambers that could provide standardized environments for experiments in plant electrophysiology. This paper proposes a grow box system with integrated sensors, actuators, and an 8-channel biosignal amplifier. This allows for precise, real-time monitoring, and manipulation of growth conditions. We demonstrate its practical application through experiments isolating light-induced action potentials (APs) in plants. Then, we evaluate two electrode configurations to identify the optimal setup for signal acquisition. Additionally, we implement supervised machine learning, using the Extreme Gradient Boosting (XGBoost) algorithm, to automatically classify plant physiological states. The model achieves a 96.8% accuracy in detecting changes associated with nycthemeral rhythms. These results highlight the potential of customizable grow boxes, like the system presented, combined with standard-ized recording protocols to facilitate seamless data sharing and collaborative efforts for refining analytical techniques in plant electrophysiology.

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Publication Details

Published
2025-05-26
DOI
https://doi.org/10.1109/icmlcn64995.2025.11140467
Primary Topic
Plant and Biological Electrophysiology Studies
Type
article
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article

Modular GrowBox Design for Precision Monitoring of Plant Bioelectrical Signals

Maurizio Magarini, Imen Bekkari, Carlotta De Palo
Plant and Biological Electrophysiology Studies
article

Modular GrowBox Design for Precision Monitoring of Plant Bioelectrical Signals

Maurizio Magarini, Imen Bekkari, Carlotta De Palo
article en

Abstract

Grow boxes are controlled plant growth chambers that could provide standardized environments for experiments in plant electrophysiology. This paper proposes a grow box system with integrated sensors, actuators, and an 8-channel biosignal amplifier. This allows for precise, real-time monitoring, and manipulation of growth conditions. We demonstrate its practical application through experiments isolating light-induced action potentials (APs) in plants. Then, we evaluate two electrode configurations to identify the optimal setup for signal acquisition. Additionally, we implement supervised machine learning, using the Extreme Gradient Boosting (XGBoost) algorithm, to automatically classify plant physiological states. The model achieves a 96.8% accuracy in detecting changes associated with nycthemeral rhythms. These results highlight the potential of customizable grow boxes, like the system presented, combined with standard-ized recording protocols to facilitate seamless data sharing and collaborative efforts for refining analytical techniques in plant electrophysiology.

Politecnico di Milano (IT)
Openalex Percentile: Top 83%
Plant and Biological Electrophysiology Studies
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