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光合作用产生的活性氧和逆行信号通路。

Photosynthetic ROS and retrograde signaling pathways.

机构信息

Shanghai Center for Plant Stress Biology, CAS Center for Excellence in Molecular Plant Sciences, Chinese Academy of Sciences, 200032, Shanghai, China.

University of the Chinese Academy of Sciences, 100049, Beijing, China.

出版信息

New Phytol. 2024 Nov;244(4):1183-1198. doi: 10.1111/nph.20134. Epub 2024 Sep 17.

DOI:10.1111/nph.20134
PMID:39286853
Abstract

Sessile plants harness mitochondria and chloroplasts to sense and adapt to diverse environmental stimuli. These complex processes involve the generation of pivotal signaling molecules, including reactive oxygen species (ROS), phytohormones, volatiles, and diverse metabolites. Furthermore, the specific modulation of chloroplast proteins, through activation or deactivation, significantly enhances the plant's capacity to engage with its dynamic surroundings. While existing reviews have extensively covered the role of plastidial retrograde modules in developmental and light signaling, our focus lies in investigating how chloroplasts leverage photosynthetic ROS to navigate environmental fluctuations and counteract oxidative stress, thereby sustaining primary metabolism. Unraveling the nuanced interplay between photosynthetic ROS and plant stress responses holds promise for uncovering new insights that could reinforce stress resistance and optimize net photosynthesis rates. This exploration aspires to pave the way for innovative strategies to enhance plant resilience and agricultural productivity amidst changing environmental conditions.

摘要

无柄植物利用线粒体和叶绿体来感知和适应多样化的环境刺激。这些复杂的过程涉及关键信号分子的产生,包括活性氧(ROS)、植物激素、挥发物和多种代谢物。此外,通过激活或失活来特异性调节叶绿体蛋白,显著增强了植物与动态环境相互作用的能力。尽管现有的综述广泛涵盖了质体逆行模块在发育和光照信号中的作用,但我们的关注点在于研究叶绿体如何利用光合作用产生的 ROS 来应对环境波动和抵御氧化应激,从而维持初级代谢。揭示光合作用产生的 ROS 与植物应激反应之间的细微相互作用,有望揭示新的见解,增强植物的抗逆性并优化净光合作用率。这项探索旨在为创新策略铺平道路,以提高植物在变化的环境条件下的恢复力和农业生产力。

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