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设施作物根际温度调控技术研究进展

柏雨润 闫世风 王发香 李灵芝 海云瑞 郭文忠

中国农业气象2026,Vol.47Issue(4):521-529,9.
中国农业气象2026,Vol.47Issue(4):521-529,9.DOI:10.3969/j.issn.1000-6362.2026.04.004

设施作物根际温度调控技术研究进展

Research Progress on Rhizosphere Temperature Control Technologies for Facility Crops

柏雨润 1闫世风 2王发香 3李灵芝 4海云瑞 3郭文忠2

作者信息

  • 1. 北京市农林科学院智能装备技术研究中心,北京 100097||山西农业大学园艺学院,太谷 030800
  • 2. 北京市农林科学院智能装备技术研究中心,北京 100097
  • 3. 宁夏农林科学院农业经济与信息技术研究所,银川 750002
  • 4. 山西农业大学园艺学院,太谷 030800
  • 折叠

摘要

Abstract

In protected agricultural systems,fluctuations in crop rhizosphere temperature exert significant impacts on key physiological processes,including water uptake,nutrient translocation and photosynthetic activity.Although contemporary environmental control technologies focus primarily on air temperature optimization,while precise management of rhizosphere temperature,they remain challenged by dual constraints:inadequate adaptability to extreme climatic conditions and subpar energy efficiency.This study systematically evaluated the research advancements and development trajectories of rhizosphere temperature regulation technologies through an integrative bibliometric analysis and technical characteristic comparison,with the aim of clarifying the application frontiers and efficiency enhancement strategies for passive and active regulation approaches.The core objective was to address the conflict between the risk of rhizosphere temperature runaway under extreme climatic conditions and the high energy costs inherent in temperature control systems.Findings indicated that passive regulation techniques,including plastic mulching,ridge cultivation and phase-change materials,mitigated root temperature fluctuations by 40%-60%via physical barrier effects,delivering significant energy-saving benefits under conventional climatic conditions(reducing greenhouse energy consumption by 60%-80%).However,during low-temperature or high-temperature events,the rhizosphere faced an elevated risk of temperature control failure,with the probability of such failure positively correlated with the extremity of climatic conditions.Conversely,active regulation systems,comprising heat pump technologies,active thermal energy storage,release devices and nutrient solution circulation temperature control,enabled precise temperature management within a range of±1℃,enhancing greenhouse crop yields by 17%-55%.These systems were constrained by technical bottlenecks,including a low coefficient of performance(COP 1.5-1.9)and high energy consumption costs(0.7-5.0kWh·m-2)per unit area.Future research should prioritize the deep integration of IoT sensing with multi-energy complementary technologies,the development of composite energy storage materials with tunable phase-transition temperatures(15-25℃),and the construction of a full-chain technical framework that integrates climate warning,dynamic compensation,and intelligent control.Such efforts will facilitate a paradigm shift in protected-crop rhizosphere temperature management,enabling a transition from rudimentary buffering strategies to adaptive smart regulation systems.

关键词

根际温度/设施作物/被动调控/主动调控

Key words

Root zone temperature/Facility crops/Passive regulation/Active regulation

引用本文复制引用

柏雨润,闫世风,王发香,李灵芝,海云瑞,郭文忠..设施作物根际温度调控技术研究进展[J].中国农业气象,2026,47(4):521-529,9.

基金项目

宁夏回族自治区重点研发计划项目(2023BCF01047) (2023BCF01047)

中国农业气象

1000-6362

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