细胞大小:植物原生质体分生组织潜能的关键决定因素

IF 4.6 4区 农林科学 Q1 BIOTECHNOLOGY & APPLIED MICROBIOLOGY aBIOTECH Pub Date : 2021-01-01 DOI:10.1007/s42994-020-00033-y
Ipsita Pujari, Abitha Thomas, Padmalatha S. Rai, Kapaettu Satyamoorthy, Vidhu Sankar Babu
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引用次数: 0

摘要

与非天然代谢产物的产生相比,单一植物细胞中天然天然产物合成的代谢途径重建和基因编辑被认为不那么复杂。作为一个有效的真核生物系统,植物包含合适的翻译后修饰。然而,缓慢的细胞分裂速率和异质性是从植物细胞中获得一致产品的障碍。植物细胞的同步性可以在体外培养中获得。分离的能够分裂的植物原生质体可以潜在地提高目标生物活性物质的未受损产量,类似于微生物和单细胞真核生物。酵母实验的证据表明,增强机制的“临界细胞大小”和分裂率主要取决于培养条件和营养物质的可用性。拟南芥茎尖分生组织中的细胞大小控制机制类似于酵母,尤其是分裂酵母。如果从植物中分离的原生质体在培养中进行细胞大小研究和细胞周期进展,它将回答潜在的分子机制,如单细胞到多细胞的过渡状态、寿命、衰老、器官发生过程中的“细胞大小重置”以及对外部线索的适应。
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Cell size: a key determinant of meristematic potential in plant protoplasts

Metabolic pathway reconstruction and gene edits for native natural product synthesis in single plant cells are considered to be less complicated when compared to the production of non-native metabolites. Being an efficient eukaryotic system, plants encompass suitable post-translational modifications. However, slow cell division rate and heterogeneous nature is an impediment for consistent product retrieval from plant cells. Plant cell synchrony can be attained in cultures developed in vitro. Isolated plant protoplasts capable of division, can potentially enhance the unimpaired yield of target bioactives, similar to microbes and unicellular eukaryotes. Evidence from yeast experiments suggests that ‘critical cell size’ and division rates for enhancement machinery, primarily depend on culture conditions and nutrient availability. The cell size control mechanisms in Arabidopsis shoot apical meristem is analogous to yeast notably, fission yeast. If protoplasts isolated from plants are subjected to cell size studies and cell cycle progression in culture, it will answer the underlying molecular mechanisms such as, unicellular to multicellular transition states, longevity, senescence, ‘cell-size resetting’ during organogenesis, and adaptation to external cues.

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CiteScore
7.70
自引率
2.80%
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0
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