Intelligent Greenhouse Temperature Management: A Closed-Loop Perspective on Sensing, Modeling, Control, and Deployment

Greenhouse cultivation plays an important role in food security, resource-use efficiency, and sustainable agricultural development. Temperature management is particularly critical because it directly affects crop growth, yield and quality, energy consumption, and environmental control. To clarify the technological pathways, application boundaries, and future directions of intelligent greenhouse temperature management, this review synthesizes recent studies from a closed-loop perspective. A structured narrative approach was adopted to organize the literature around an integrated framework linking multi-source sensing and data governance, predictive modeling, control strategies, system deployment, and feedback-based operation and maintenance. The review first examines the roles of sensors, Internet of Things (IoT) technologies, wireless sensor networks, and multi-source data fusion in reliable greenhouse state perception. It then compares mechanistic, machine-learning, deep-learning, hybrid and physics-guided models in terms of prediction capability, interpretability, generalization, uncertainty, and control compatibility. Control strategies ranging from rule-based and fuzzy control to model predictive control, reinforcement learning, and RL-MPC are further evaluated with respect to constraints, adaptability, energy efficiency, and operational safety. Finally, edge–cloud collaboration, digital twins, safety fallback, and model lifecycle management are discussed as key enablers for translating prediction and control methods into deployable closed-loop systems. Overall, recent advances indicate that high prediction accuracy alone is insufficient for practical greenhouse management; reliable sensing, trustworthy modeling, safe control, system integration, and long-term maintainability must be considered jointly. Future research should therefore move toward crop-oriented, energy-efficient, trustworthy, and practically deployable closed-loop systems for intelligent greenhouse temperature management.

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Publication Details

Journal
Agriculture
Published
2026-10-08
DOI
https://doi.org/10.3390/agriculture16192171
Primary Topic
Greenhouse Technology and Climate Control
Type
article
Field-Weighted Citation Impact
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article

Intelligent Greenhouse Temperature Management: A Closed-Loop Perspective on Sensing, Modeling, Control, and Deployment

Xuan Zhang, Zhiyuan Wang, Kai Yao, Wengang Li et al.
Agriculture
Greenhouse Technology and Climate Control
article

Intelligent Greenhouse Temperature Management: A Closed-Loop Perspective on Sensing, Modeling, Control, and Deployment

Xuan Zhang, Zhiyuan Wang, Kai Yao, Wengang Li, Xinyi Yao, Jing Li, Jiahui Fu
article en

Abstract

Greenhouse cultivation plays an important role in food security, resource-use efficiency, and sustainable agricultural development. Temperature management is particularly critical because it directly affects crop growth, yield and quality, energy consumption, and environmental control. To clarify the technological pathways, application boundaries, and future directions of intelligent greenhouse temperature management, this review synthesizes recent studies from a closed-loop perspective. A structured narrative approach was adopted to organize the literature around an integrated framework linking multi-source sensing and data governance, predictive modeling, control strategies, system deployment, and feedback-based operation and maintenance. The review first examines the roles of sensors, Internet of Things (IoT) technologies, wireless sensor networks, and multi-source data fusion in reliable greenhouse state perception. It then compares mechanistic, machine-learning, deep-learning, hybrid and physics-guided models in terms of prediction capability, interpretability, generalization, uncertainty, and control compatibility. Control strategies ranging from rule-based and fuzzy control to model predictive control, reinforcement learning, and RL-MPC are further evaluated with respect to constraints, adaptability, energy efficiency, and operational safety. Finally, edge–cloud collaboration, digital twins, safety fallback, and model lifecycle management are discussed as key enablers for translating prediction and control methods into deployable closed-loop systems. Overall, recent advances indicate that high prediction accuracy alone is insufficient for practical greenhouse management; reliable sensing, trustworthy modeling, safe control, system integration, and long-term maintainability must be considered jointly. Future research should therefore move toward crop-oriented, energy-efficient, trustworthy, and practically deployable closed-loop systems for intelligent greenhouse temperature management.

AgricultureVol. 16(19)
Northeast Agricultural University (CN), Yunnan Agricultural University (CN), China Agricultural University (CN)
Openalex Percentile: Top 14%
Greenhouse Technology and Climate Control
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