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首页> 外文期刊>Current opinion in biotechnology >Novel perspectives for the engineering of abiotic stress tolerance in plants. (Special Issue: Food Biotechnology (edited by Koffas, M. A. G. & Marienhagen, J.) and Plant Biotechnology (edited by Moller, B. L. & Ratcliffe, R. G.).)
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Novel perspectives for the engineering of abiotic stress tolerance in plants. (Special Issue: Food Biotechnology (edited by Koffas, M. A. G. & Marienhagen, J.) and Plant Biotechnology (edited by Moller, B. L. & Ratcliffe, R. G.).)

机译:工程非生物胁迫耐受性工程的新观点。 (特刊:食品生物技术(由Koffas,M. A. G.和Marienhagen,J.编辑)和植物生物技术(由Moller,B. L.&Ratcliffe,R. G.编辑)。)

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摘要

Adverse environmental conditions pose serious limitations to agricultural production. Classical biotechnological approaches towards increasing abiotic stress tolerance focus on boosting plant endogenous defence mechanisms. However, overexpression of regulatory elements or effectors is usually accompanied by growth handicap and yield penalties due to crosstalk between developmental and stress-response networks. Herein we offer an overview on novel strategies with the potential to overcome these limitations based on the engineering of regulatory systems involved in the fine-tuning of the plant response to environmental hardships, including post-translational modifications, small RNAs, epigenetic control of gene expression and hormonal networks. The development and application of plant synthetic biology tools and approaches will add new functionalities and perspectives to genetic engineering programs for enhancing abiotic stress tolerance.
机译:不利的环境条件严重限制了农业生产。增加非生物胁迫耐受性的经典生物技术方法侧重于增强植物内源防御机制。然而,由于发育和应激反应网络之间的串扰,调节元件或效应子的过表达通常伴随着生长障碍和产量损失。本文中,我们将提供一种新策略的概述,该策略可能基于基于微调植物对环境困难的反应所涉及的调控系统工程而克服这些局限性,包括翻译后修饰,小RNA,基因表达的表观遗传控制和荷尔蒙网络。植物合成生物学工具和方法的开发和应用将为基因工程计划增加新的功能和观点,以增强非生物胁迫的耐受性。

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