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大豆种子中异黄酮合成的蛋白质组学见解

Proteomic insights into synthesis of isoflavonoids in soybean seeds.

作者信息

Dastmalchi Mehran, Dhaubhadel Sangeeta

机构信息

Department of Biology, University of Western Ontario, London, Canada.

Southern Crop Protection and Food Research Center, Agriculture and Agri-Food Canada, London, Canada.

出版信息

Proteomics. 2015 May;15(10):1646-57. doi: 10.1002/pmic.201400444. Epub 2015 Mar 11.

DOI:10.1002/pmic.201400444
PMID:25757747
Abstract

Soybean seeds are the major human dietary source of isoflavonoids, a class of plant natural products almost entirely exclusive to legumes. Isoflavonoids reduce the risk of a number of chronic human illnesses. Biosynthesis and accumulation of this class of compounds is a multigenic and complex trait, with a great deal of variability among soybean cultivars and with respect to the environment. There is a wealth of genomic, transcriptomic, and metabolomics data regarding isoflavonoid biosynthesis, but the connection between multigene families and their cognate proteins is a missing link that could provide us with a great deal of functional information. The changing proteome of the developing seed can shed light on the correlative increase in isoflavonoids, while the maternal seed coat proteome can provide the link with inherited metabolic and signaling machinery. In this effort, 'seed-filling' proteomics has revealed key secondary metabolite enzymes that quantitatively vary throughout seed development. Seed coat proteomics has revealed the existence of metabolic apparatus specific to isoflavonoid biosynthesis (isoflavonoid reductase) that could potentially influence the chemical content of this organ. The future of proteomic analysis of isoflavonoid biosynthesis should be centered on the development of quantitative, tissue-specific proteomes that emphasize low-abundance metabolic proteins to extract the whole suite of factors involved.

摘要

大豆种子是人类饮食中异黄酮的主要来源,异黄酮是一类几乎完全为豆科植物所特有的植物天然产物。异黄酮可降低多种人类慢性疾病的风险。这类化合物的生物合成和积累是一个多基因控制的复杂性状,在大豆品种之间以及不同环境条件下存在很大差异。关于异黄酮生物合成,已有大量的基因组、转录组和代谢组学数据,但多基因家族与其相关蛋白之间的联系仍是缺失环节,而这一环节可能为我们提供大量功能信息。发育中种子不断变化的蛋白质组可以揭示异黄酮含量相应增加的原因,而母本种皮蛋白质组则可以提供与遗传代谢和信号传导机制的联系。在此项研究中,“种子充实期”蛋白质组学揭示了在种子发育过程中含量发生定量变化的关键次生代谢酶。种皮蛋白质组学揭示了异黄酮生物合成所特有的代谢机制(异黄酮还原酶)的存在,该机制可能会影响这个器官的化学组成。异黄酮生物合成蛋白质组分析的未来应聚焦于开发定量、组织特异性蛋白质组,重点关注低丰度代谢蛋白,以找出所有相关因素。

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