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首页> 外文期刊>Journal of Applied Phycology >Transcriptome analysis reveals metabolic regulation mechanism of microalga Chlorella pyrenoidosa in response to the mixed culture with yeast Yarrowia lipolytica
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Transcriptome analysis reveals metabolic regulation mechanism of microalga Chlorella pyrenoidosa in response to the mixed culture with yeast Yarrowia lipolytica

机译:转录组分析显示微乐藻菌Pyrenoidosa的代谢调节机制,响应于酵母Yarrowia Lipolytica的混合培养物

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摘要

The mixed culture of microalgae and yeast has been confirmed to enhance many bioprocesses including waste degradation, remediation, and biomass generation for lipid production. Our latest study showed that besides the higher yield of biomass and lipid, the mixed culture of Chlorella pyrenoidosa and Yarrowia lipolytica can achieve the higher yields of carbohydrates, protein, and higher heating value. The strengthening mechanism of the mixed culture of microalgae and yeast mostly focused on nutritional complementarity and the culture conditions in previous works. In this work, de novo transcriptome profiling and central metabolic pathway analysis of C. pyrenoidosa cells in mono microalgae culture and mixed culture were performed. The differential transcriptome analysis revealed that most biological processes of C. pyrenoidosa, such as TCA cycle, glycolysis/gluconeogenesis pathway, pentose phosphate pathway, and nitrate assimilation, were enhanced by the mixed culture with yeast at 24 h. Meanwhile, the CO2 assimilation of C. pyrenoidosa was inhibited. Deep analysis of carbon metabolism, nitrogen metabolism, and photosynthesis well illustrates the intrinsic mechanism of physiological and biochemical differences occurring in the mono microalgae culture and the mixed culture. This study unraveled metabolic regulation molecular mechanism of C. pyrenoidosa in response to the mixed culture with Y. lipolytica, and strengthens the understanding of the synergistic effect between microalgae and yeast in the mixed culture.
机译:已经证实了微藻和酵母的混合培养物,以增强许多生物过程,包括废物降解,修复和脂质生产生物量产生。我们最新的研究表明,除了生物质和脂质的产量较高,小球藻比尼氏菌和酵母脂肪醇的混合培养物可以达到碳水化合物,蛋白质和更高的加热值的更高产率。微藻和酵母混合培养的强化机制主要集中在先前作品中的营养互补性和培养条件。在这项工作中,进行了在单微藻培养和混合培养中C.Pyrenoidosa细胞C.Cygenoidosa细胞的Novo转录组分析和中央代谢途径分析。差分转录组分析显示,通过24小时的混合培养,通过在24小时的混合培养物中增强了C.芘的蛋白质,例如TCA循环,糖酵解/葡糖基因途径,戊糖和硝酸盐同化的生物过程。同时,抑制了C. pyrenoidosa的CO2同化。深入分析碳代谢,氮代谢和光合作用良好说明了在单微藻培养和混合培养中发生的生理生化差异的内在机制。该研究响应于脂肪醇的混合培养,该研究揭示了C.Pyrenoidosa的代谢调节分子机制。

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