植物生物钟在农业生产中应对全球变暖的应用

doi:10.11983/CBB23136

植物学报 ›› 2024, Vol. 59 ›› Issue (4): 635-650.DOI: 10.11983/CBB23136 cstr: 32102.14.CBB23136

植物生物钟在农业生产中应对全球变暖的应用

谢启光^*(), 徐小冬^*()

河南大学生命科学学院, 作物胁迫适应与改良国家重点实验室, 开封 475004

收稿日期:2023-10-07 接受日期:2024-03-05 出版日期:2024-07-10 发布日期:2024-07-10
通讯作者: *谢启光/徐小冬, 河南大学生命科学学院教授、博士生导师、省部共建作物逆境适应与改良国家重点实验室/生物节律团队课题组长; 2002-2015年分别于美国Vanderbilt U和美国Dartmouth College从事时间生物学研究。团队研究方向为生物钟调控农艺性状的遗传学机理。研究成果在Science、Proceedings of the National Academy of Sciences of the United States of America、Plant Cell、Plant, Cell & Environment、Theoretical and Applied Genetics、Journal of Integrative Plant Biology和Genetics等期刊发表, 共计50余篇; 先后发现植物生物钟TTFL的激活环路及揭示生物钟蛋白时序表达的动态调控机理, 2次更新植物生物钟分子机制模型, 入选Plant Cell (2020-2021年度) 15篇高影响力论文; 授权国家发明专利7项、授权国家农业农村部植物新品种1项。两位课题组长历任中国细胞生物学学会生物节律分会副会长、常务委员和学术委员。E-mail: qiguang.xie@henu.edu.cn; xiaodong.xu@henu.edu.cn
基金资助:
国家自然科学基金(32170259);国家自然科学基金(32170275);国家自然科学基金(U1904202)

Plant Circadian Clock in Agricultural Production in Response to Global Warming

Qiguang Xie^*(), Xiaodong Xu^*()

State Key Laboratory of Crop Stress Adaptation and Improvement, School of Life Sciences, Henan University, Kaifeng 475004, China

Received:2023-10-07 Accepted:2024-03-05 Online:2024-07-10 Published:2024-07-10
Contact: ^*E-mail: qiguang.xie@henu.edu.cn; xiaodong.xu@henu.edu.cn

摘要/Abstract

摘要： 当前全球变暖趋势不可逆转, 异常气候导致的温度胁迫频繁发生, 给农业高产及稳产带来了巨大挑战。生物钟作为内源性且可遗传的计时机制, 赋予了植物预测和快速响应环境因子周期性变化的能力, 以确保诸多生理生化途径与环境同步, 极大增强了植物的生存和繁衍能力。温度响应和补偿现象不仅涉及生物钟与环境信号“同步化”, 而且涉及农业生产中作物适应温度胁迫的实际应用。生物钟温度补偿是指在较宽范围的生理温度内, 通过转录和转录后机制, 生物钟可基本维持近日节律周期的长度不变, 确保计时机制准确运行。自然环境中, 光照、温度和湿度紧密耦联, 作为授时因子将环境信号经过输入途径传递给生物钟核心振荡器, 影响植物生长发育的全过程。该文回顾了植物生物钟温度响应和补偿机制的研究历史, 详述了最新研究进展, 展望了其在作物遗传育种和田间管理等方面的应用前景, 为解决农作物温度胁迫适应性问题提供了全新的思路和方案。

关键词: 生物钟, 近日节律, 温度补偿, 温度胁迫, 遗传育种

Abstract: Global warming is now a major trend, in which temperature stress due to abnormal climate occurs frequently, posing a great challenge to the high-yield and stable agricultural production. The circadian clock, an endogenous, heritable timekeeping mechanism, endows plants with the ability to anticipate and respond rapidly to cyclic changes in external factors, which ensures that physiological and biochemical pathways are synchronized with the environment and greatly enhances plant’s ability to survive and reproduce. The temperature responses and temperature compensation are not only related to the key scientific issue of “synchronization” of the circadian clock with environmental signals, but also to the application of crop adaptation to temperature stress in agriculture. Temperature compensation refers to the fact that within a broad range of physiological temperatures, through transcriptional and post-transcriptional architecture, the clock can essentially maintain the circadian period length unchanged, ensuring that the timekeeping mechanism operates accurately. Light, temperature and humidity are closely coupled in the natural environment, and they act as timing factors, transmitting external cues to the core oscillators via the input pathway, which affects almost all processes of plant growth and development. In this review, we summarize the historical research of temperature response and compensation mechanism of plant circadian clocks, and describe the latest research progress, and also look forward to its application in crop genetic breeding and field management. We seek to provide new idea and solution to the problem of temperature stress adaptation in crops.

Key words: circadian clocks, circadian rhythms, temperature compensation, temperature stress, genetic breeding

谢启光, 徐小冬. 植物生物钟在农业生产中应对全球变暖的应用. 植物学报, 2024, 59(4): 635-650.

Qiguang Xie, Xiaodong Xu. Plant Circadian Clock in Agricultural Production in Response to Global Warming. Chinese Bulletin of Botany, 2024, 59(4): 635-650.

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链接本文: https://www.chinbullbotany.com/CN/10.11983/CBB23136

https://www.chinbullbotany.com/CN/Y2024/V59/I4/635

图/表 4

图1 植物生物钟核心振荡器响应内外环境信号并时序性形成转录蛋白复合体植物生物钟系统输入途径的内外环境信号, 包括已经公认的授时因子、外部环境胁迫因子和内环境中的激素和代谢组分。生物钟核心组分展示出基因时序表达和蛋白动态周转机制。转录本和蛋白复合体按照1天24小时的时相次序排布。ABA: 脱落酸; BR: 油菜素甾醇; SA: 水杨酸; CK: 细胞分裂素

Figure 1 Circadian core oscillators respond to internal and external environmental cues and temporally form transcriptional protein complexes in plants Internal and external environmental signals in the input pathways of plant clock system include well-recognized timing factors, external environmental stressors, and internal hormonal and metabolic components. The core oscillators of the circadian clock exhibit temporal gene expression and dynamic protein turnover mechanisms. The transcripts and protein complexes are sequentially shown according to the circadian phases of a 24 h day. ABA: Abscisic acid; BR: Brassinosteroid; SA: Salicylic acid; CK: Cytokinin

图2 生物钟感知昼夜温度变化、调控高温胁迫及周期长度温度补偿示意图信号途径中带箭头实线表示直接或间接激活作用, 不带箭头实线表示直接或间接抑制作用, 黑色带箭头虚线表示可能存在的信号途径, C图中棕色带箭头虚线表示蛋白降解途径。PA: 磷脂酸; EE: 夜间元件; CBS: CCA1结合位点; LBS: LUX结合位点

Figure 2 Schematic diagram of the circadian clock that anticipates diel temperature fluctuations, regulates the responses to high-temperature stress and temperature compensation of the circadian period length Solid lines with arrows in signaling pathways indicate direct or indirect activation, solid lines without arrows indicate direct or indirect inhibition, black dotted lines with arrows indicate possible signaling pathways, and brown dotted lines with arrows in Figure 2C indicate protein degradation pathways. PA: Phosphatidic acid; EE: Evening element; CBS: CCA1-binding site; LBS: LUX-binding site

图3 温度补偿的计算及近日节律表型 (A) 从常温转入高温后, 自由振荡条件下检测的近日节律可能出现3种温度补偿现象; (B) 昼夜条件下, 生物钟每天被重置, 周期固定为24小时; 自由振荡条件下(如恒温和持续光照), 内源性节律周期并不等于24小时。近日节律的关键参数包括周期长度、相位、振幅和中值。ZT: 授时时间

Figure 3 Temperature compensation calculations and circadian rhythm phenotypes (A) Three types of temperature compensation may occur when the circadian rhythm is detected under free-running conditions after a transition from normal to higher temperature; (B) In light/dark cycles, the circadian clock is reset each day with a fixed 24 h period length; under free-running conditions (e.g., constant temperature and continuous light), the period length of endogenous circadian rhythm is not equal to 24 h. Key parameters of the circadian rhythmicity include period length, phase, amplitude, and mesor. ZT: Zeitgeber time

图4 生物钟调控的高温胁迫相关环境因子及生理表型环境中光照、温度和湿度存在昼夜节律性变化, 其中光照和温度具有较强的正相关性, 温度和湿度具有较强的负相关性。在特定时段突破植物生理阈值的光照、温度和湿度会导致发生时间特异性胁迫。热激如果在1天中不同时段或作物不同生长时期发生, 最终均会对产量和品质产生一定程度的影响。

Figure 4 The circadian clock respond to environmental factors related to high temperature stress and regulate physiological processes Light, temperature and humidity in the environment show daily oscillations, with a strong positive correlation between light and temperature and a strong negative correlation between temperature and humidity. When physiological thresholds are exceeded at specific times of a day, light, temperature and humidity can lead to time-specific stresses in plants. Heat shock, if it occurs at different times of the day or at different growth periods, will eventually affect yield and quality to some extent in crops.

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植物生物钟在农业生产中应对全球变暖的应用

Plant Circadian Clock in Agricultural Production in Response to Global Warming

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