甜菜碱

Q3 Pharmacology, Toxicology and Pharmaceutics
Aman Singh, Pooja Singh, K. Choudhary
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引用次数: 17

摘要

温度、水分、盐度、紫外线、重金属等非生物胁迫影响植物的生长和产量。尽管存在这些限制,植物还是会产生各种代谢物来维持它们的生存。初级代谢物是通过重要的代谢过程产生的,对植物的生存至关重要。此外,次生代谢物(SMs)是由初级代谢物合成的,主要作为一种防御机制和与不利环境条件相互作用的手段。除了它们在植物中的防御功能外,SMs在制药工业中也很重要。甜菜碱(Glycine betaine, GB)是一种季铵盐类化合物,存在于植物、动物和微生物中。它是一种相容的溶质,反映出潜在的生物活性,可以抵抗各种非生物胁迫,如盐度、水、热、重金属、紫外线辐射等。由于高溶解度和低粘度,它的积累通常在叶绿体和质体中观察到。积累水平一般取决于植物种类、生长阶段、暴露时间和胁迫性质。GB减少氧化应激,防止应激条件下光系统和其他生物分子的破坏。它对维持细胞的水势和渗透压很重要,因此在盐度胁迫下起着有效的渗透作用。在温度胁迫过程中,ROS的过量产生会对出氧复合物、电子传递链和光系统造成损害。为了保护植物免受这些伤害,GB通过各种信号通路激活负责合成热休克蛋白、糖蛋白和抗氧化剂的基因。GB通过与脱落酸(ABA)和乙烯的相互作用,维持rubisco和钙离子atp酶的活性,减轻了水分胁迫的影响。GB支持抗坏血酸-谷胱甘肽循环、超氧化物歧化酶、过氧化氢酶、过氧化物酶和抗坏血酸过氧化物酶(抗氧化酶)的正常功能,以克服各种应激。水杨酸(SA)、茉莉酸(JA)、ABA、乙烯和多胺(PAS)等植物激素通过不同的信号通路与GB相互协调,确保植物在各种非生物胁迫下的保护作用。本文综述了GB对植物中各种非生物胁迫的潜在生物活性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Glycine Betaine
Abiotic stresses like temperature, water, salinity, ultraviolet (UV) radiations, heavy metals, etc., affect plants’ growth and yield. Despite these constraints, plants produce a variety of metabolites to maintain their survival. Primary metabolites, produced through crucial metabolic processes, are essential for plants survival. Additionally, secondary metabolites (SMs) are synthesized from primary metabolites and are mainly used as a defensive mechanism and a means of interacting with unfavorable environmental conditions. In addition to their defensive function in plants, SMs are significant in the pharmaceutical industry. Glycine betaine (GB) is a quaternary ammonium compound that belongs to a class of SMs, present in plants, animals, and microbes. It functions as a compatible solute and reflects potential bioactivity against various abiotic stresses like salinity, water, heat, heavy metals, UV radiations, etc. Due to high solubility and low viscosity, its accumulation is commonly observed in chloroplasts and plastids. The accumulation level generally depends on plant species, growth stage, exposure duration, and stress's nature. GB reduces oxidative stress and prevents the damaging of photosystems and other biomolecules under stressful conditions. It is important for maintaining the water potential and osmotic pressure of cells and hence functions as a potent osmolyte under salinity stress. Excessive production of ROS during temperature stress is responsible for damage to oxygen-evolving complexes, electron transport chains, and photosystems. In order to protect plants from these damages, GB activates the genes responsible for synthesizing heat shock proteins, glycoproteins, and antioxidants via various signaling pathways. GB alleviates the effect of water stress by maintaining the function of rubisco and calcium ion ATPase activity via crosstalk with Abscisic acid (ABA) and ethylene. GB supports the proper functioning of the ascorbate-glutathione cycle, superoxide dismutase, catalase, peroxidase, and ascorbate peroxidase (antioxidative enzymes) to overcome various stresses. Phytohormones like salicylic acid (SA), jasmonic acid (JA), ABA, ethylene, and polyamines (PAS) coordinate well with GB via different signaling pathways to ensure plant protection under various abiotic stresses. The potential bioactivity of GB against various abiotic stresses in plants has been summarized in this review.
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来源期刊
Journal of Pharmacy and Nutrition Sciences
Journal of Pharmacy and Nutrition Sciences Pharmacology, Toxicology and Pharmaceutics-Pharmacology, Toxicology and Pharmaceutics (all)
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