Research advances of salt exclusion, salt sequestration, salt secretion, and salt signaling regulation in plants

盐(化学) 分泌物 盐腺 化学 生物化学 物理化学
作者
Yanchun Zhu,Mengxia Li,Tao Wang,Jinyu Wang,Hongkai Zhou,Yongjun Lin,Changxi Yin
出处
期刊:Plant Stress [Elsevier BV]
卷期号:17: 100952-100952 被引量:11
标识
DOI:10.1016/j.stress.2025.100952
摘要

• Plants can exclude salt by maintaining cell wall integrity, enhancing apoplast barrier, and increasing ion antagonism. • Plants can cope with salt stress through vacuolar sequestration, a key salt sequestration mechanism for ion homeostasis. • Plants can secrete salt through the SOS pathway and through salt glands and microhairs. • Signaling regulation, including Ca 2+ signaling cascades, phytohormone networks, and ROS signaling pathways, serves as a key cellular mechanism for plant salt stress mitigation. • Unresolved scientific questions concerning plant responses to salt stress were proposed for further studies. Salt stress is one of the main environmental stress factors with increasing negative impacts on agricultural production worldwide, posing serious threats to global food security. It is of great importance to investigate the response strategies and mechanisms of plants to salt stress. This review article comprehensively introduces the research advances of salt exclusion, salt sequestration, salt secretion, and salt signaling regulation in plants. For salt exclusion, plants block the entry of salt into root and reduce the transport of salt to aerial parts by maintaining the integrity of cell wall, enhancing the barrier function of apoplasts, and promoting the ion antagonism. Plants can cope with salt stress through vacuolar sequestration, a key salt sequestration mechanism for ion homeostasis. Plants can secrete salt from cytoplasm to extracellular compartments through salt-overly-sensitive (SOS) pathway and some anion channels and transporters, and from the inside to the outside of plants through salt glands and microhairs. Moreover, signaling regulation, including Ca 2+ signaling cascades, phytohormone networks, and reactive oxygen species (ROS) signaling pathways, serves as a key cellular mechanism for plant salt stress mitigation. In addition, some unresolved scientific issues concerning plants response to salt stress are proposed for further studies. This review article provides a theoretical framework for improving crop yield under salt stress conditions.
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