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Engineering Crops for the Future: A Phosphoproteomics Approach

机译:未来工程庄稼:磷蛋白酶方法

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摘要

Abiotic stresses like salinity, drought, heat, metal ions, radiation and oxidative stress, and especially their combinations, are major limiting factors for growth and productivity of the crops. Various molecular and biochemical processes governing the plant responses to abiotic stresses have often been investigated and hold the key for producing high-yielding and abiotic stress-tolerant crops. Plant responses to abiotic stresses are dynamic and intricate, and vary with type, level, and duration of the stress involved, as well as on the type of tissue under stress. However, one biochemical indicator common to all stresses is definite and controlled protein phosphorylation which is generally transmitted by highly complex protein kinase cascades. In recent years, using different biochemical as well as computational tools, many of such phosphoproteins are identified and characterized with respect to abiotic stresses. Subsequently, an upsurge has been witnessed in recent times for phosphoproteomics repositories or databases. The use of this crucial knowledge about such proteins and their phosphorylation sites is one of the promising ways for crop engineering against abiotic stress. Several reports have described abiotic stress-induced transcriptome, proteome and phosphoproteome changes in plants subjected to these stress factors. However, the investigations to assess precise phosphoproteomics deviations in response to environmental stresses and their implementation for crop improvement are limited. The present review summarizes and discusses the recent developments in deciphering abiotic stress induced changes in plant phosphoproteome besides development of phosphoproteomics tools and their repositories. A critical assessment of targeting phosphoproteins for crop improvement and phosphoproteomics mediated enhanced abiotic stress tolerance in transgenic plants has been presented.
机译:非生物应力,如盐度,干旱,热,金属离子,辐射和氧化应激,特别是它们的组合,是作物生长和生产率的主要限制因素。通常研究了治疗对非生物胁迫的植物反应的各种分子和生化过程,并占据生产高产和非生物耐胁迫作物的关键。对非生物胁迫的植物反应是动态和复杂的,并且随着涉及的应力的类型,水平和持续时间而变化,以及应力下的组织类型。然而,所有应激常见的一种生化指标是明确的和受控的蛋白质磷酸化,其通常由高度复杂的蛋白激酶级联传播。近年来,使用不同的生物化学和计算工具,鉴定了许多这样的磷蛋白,并相对于非生物胁迫表征。随后,近期磷蛋白酶储存库或数据库近期见证了升级。使用这种关于这种蛋白质和其磷酸化位点的关键知识是对非生物胁迫的作物工程的有希望的方式之一。几份报告描述了非生物应激诱导的转录组,蛋白质组和磷酸磷蛋白酶组在受这些应力因子的植物中的变化。然而,评估磷蛋白质组织响应环境压力的精确磷蛋白组学偏差的调查及其作物改善的实施是有限的。本综述总结和讨论了除了磷蛋白质工具及其储存库的发展之外,近代植物磷酸溶解诱导变化的最新发展。介绍了对靶向磷蛋白进行作物改善和磷蛋白蛋白介导的转基因植物中的增强的非生物胁迫耐受性的关键评价。

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