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植物应激恢复的翻译重编程

Plant translational reprogramming for stress resilience.

作者信息

Son Seungmin, Park Sang Ryeol

机构信息

National Institute of Agricultural Sciences, Rural Development Administration, Jeonju, Republic of Korea.

出版信息

Front Plant Sci. 2023 Feb 24;14:1151587. doi: 10.3389/fpls.2023.1151587. eCollection 2023.

Abstract

Organisms regulate gene expression to produce essential proteins for numerous biological processes, from growth and development to stress responses. Transcription and translation are the major processes of gene expression. Plants evolved various transcription factors and transcriptome reprogramming mechanisms to dramatically modulate transcription in response to environmental cues. However, even the genome-wide modulation of a gene's transcripts will not have a meaningful effect if the transcripts are not properly biosynthesized into proteins. Therefore, protein translation must also be carefully controlled. Biotic and abiotic stresses threaten global crop production, and these stresses are seriously deteriorating due to climate change. Several studies have demonstrated improved plant resistance to various stresses through modulation of protein translation regulation, which requires a deep understanding of translational control in response to environmental stresses. Here, we highlight the translation mechanisms modulated by biotic, hypoxia, heat, and drought stresses, which are becoming more serious due to climate change. This review provides a strategy to improve stress tolerance in crops by modulating translational regulation.

摘要

生物体通过调节基因表达来产生众多生物过程所需的必需蛋白质,这些过程涵盖从生长发育到应激反应等各个方面。转录和翻译是基因表达的主要过程。植物进化出了各种转录因子和转录组重编程机制,以响应环境信号显著调节转录。然而,如果转录本不能正确地生物合成蛋白质,即使对基因转录本进行全基因组范围的调节也不会产生有意义的影响。因此,蛋白质翻译也必须受到严格控制。生物和非生物胁迫威胁着全球作物生产,并且由于气候变化,这些胁迫正在严重恶化。多项研究表明,通过调节蛋白质翻译调控可以提高植物对各种胁迫的抗性,这需要深入了解植物在响应环境胁迫时的翻译控制机制。在此,我们重点介绍了受生物胁迫、缺氧、高温和干旱胁迫调节的翻译机制,由于气候变化,这些胁迫正变得愈发严重。本综述提供了一种通过调节翻译调控来提高作物胁迫耐受性的策略。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/59d1/9998923/c6cce566e7ab/fpls-14-1151587-g001.jpg

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