The Regulation of Plant Vegetative Phase Transition and Rejuvenation: miRNAs, a Key Regulator.

IF 2.5 Q3 GENETICS & HEREDITY
Tajbir Raihan, Robert L Geneve, Sharyn E Perry, Carlos M Rodriguez Lopez
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引用次数: 6

Abstract

In contrast to animals, adult organs in plants are not formed during embryogenesis but generated from meristematic cells as plants advance through development. Plant development involves a succession of different phenotypic stages and the transition between these stages is termed phase transition. Phase transitions need to be tightly regulated and coordinated to ensure they occur under optimal seasonal, environmental conditions. Polycarpic perennials transition through vegetative stages and the mature, reproductive stage many times during their lifecycles and, in both perennial and annual species, environmental factors and culturing methods can reverse the otherwise unidirectional vector of plant development. Epigenetic factors regulating gene expression in response to internal cues and external (environmental) stimuli influencing the plant's phenotype and development have been shown to control phase transitions. How developmental and environmental cues interact to epigenetically alter gene expression and influence these transitions is not well understood, and understanding this interaction is important considering the current climate change scenarios, since epigenetic maladaptation could have catastrophic consequences for perennial plants in natural and agricultural ecosystems. Here, we review studies focusing on the epigenetic regulators of the vegetative phase change and highlight how these mechanisms might act in exogenously induced plant rejuvenation and regrowth following stress.

Abstract Image

植物营养相变和返老还童的调控:mirna,一个关键的调控因子。
与动物不同,植物的成体器官不是在胚胎发生过程中形成的,而是在植物发育过程中由分生细胞形成的。植物发育涉及一系列不同的表型阶段,这些阶段之间的过渡称为相变。相变需要严格调节和协调,以确保它们在最佳的季节和环境条件下发生。多年生多年生植物在其生命周期中多次经历营养阶段和成熟生殖阶段的过渡,无论是多年生植物还是一年生植物,环境因素和培养方法都可以扭转植物发育的单向载体。调控基因表达的表观遗传因子响应于影响植物表型和发育的内部线索和外部(环境)刺激,已被证明控制相变。发育和环境因素如何相互作用以表观遗传改变基因表达并影响这些转变尚不清楚,考虑到当前的气候变化情景,理解这种相互作用很重要,因为表观遗传不适应可能对自然和农业生态系统中的多年生植物造成灾难性后果。在此,我们回顾了有关营养相变的表观遗传调控的研究,并重点介绍了这些机制如何在外源诱导的胁迫下植物的再生和再生中起作用。
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来源期刊
Epigenomes
Epigenomes GENETICS & HEREDITY-
CiteScore
3.80
自引率
0.00%
发文量
38
审稿时长
11 weeks
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