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翻译中的迷失:储存mRNA在种子萌发中的生理作用

Lost in Translation: Physiological Roles of Stored mRNAs in Seed Germination.

作者信息

Sano Naoto, Rajjou Loïc, North Helen M

机构信息

Institut Jean-Pierre Bourgin, INRAE, AgroParisTech, Université Paris-Saclay, 78000 Versailles, France.

出版信息

Plants (Basel). 2020 Mar 10;9(3):347. doi: 10.3390/plants9030347.

DOI:10.3390/plants9030347
PMID:32164149
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC7154877/
Abstract

Seeds characteristics such as germination ability, dormancy, and storability/longevity are important traits in agriculture, and various genes have been identified that are involved in its regulation at the transcriptional and post-transcriptional level. A particularity of mature dry seeds is a special mechanism that allows them to accumulate more than 10,000 mRNAs during seed maturation and use them as templates to synthesize proteins during germination. Some of these stored mRNAs are also referred to as long-lived mRNAs because they remain translatable even after seeds have been exposed to long-term stressful conditions. Mature seeds can germinate even in the presence of transcriptional inhibitors, and this ability is acquired in mid-seed development. The type of mRNA that accumulates in seeds is affected by the plant hormone abscisic acid and environmental factors, and most of them accumulate in seeds in the form of monosomes. Release of seed dormancy during after-ripening involves the selective oxidation of stored mRNAs and this prevents translation of proteins that function in the suppression of germination after imbibition. Non-selective oxidation and degradation of stored mRNAs occurs during long-term storage of seeds so that the quality of stored RNAs is linked to the degree of seed deterioration. After seed imbibition, a population of stored mRNAs are selectively loaded into polysomes and the mRNAs, involved in processes such as redox, glycolysis, and protein synthesis, are actively translated for germination.

摘要

种子特性,如发芽能力、休眠以及耐储存性/寿命,是农业中的重要性状,并且已经鉴定出了多种在转录和转录后水平参与其调控的基因。成熟干燥种子的一个特点是具有一种特殊机制,使它们在种子成熟过程中能够积累超过10000种mRNA,并在萌发期间将其用作合成蛋白质的模板。这些储存的mRNA中有一些也被称为长寿mRNA,因为即使种子暴露于长期胁迫条件下它们仍可翻译。成熟种子即使在存在转录抑制剂的情况下也能萌发,这种能力在种子发育中期获得。种子中积累的mRNA类型受植物激素脱落酸和环境因素的影响,并且它们大多数以单体形式在种子中积累。后熟过程中种子休眠的解除涉及储存mRNA的选择性氧化,这会阻止在吸胀后抑制萌发的蛋白质的翻译。在种子长期储存期间会发生储存mRNA的非选择性氧化和降解,因此储存RNA的质量与种子劣变程度相关。种子吸胀后,一群储存的mRNA被选择性地加载到多聚核糖体中,参与氧化还原、糖酵解和蛋白质合成等过程的mRNA会被积极翻译以促进萌发。

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