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Challenges of non-flocculating Saccharomyces cerevisiae haploid strain against inhibitory chemical complex for ethanol production

机译:非絮凝酿酒酵母单倍体菌株对乙醇生产抑制化学络合物的非絮凝酿酒酵母

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摘要

This study provides insight observation based on the gene expression and the metabolomic analysis of the natural robust yeast Saccharomyces cerevisiae NBRC849 during the fermentation in the medium containing inhibitory chemical complexes (ICC) at different concentrations. The tolerance mechanisms involved in the strain might have existed through the upregulation of genes involved in NAD(H)/NADP (H) cofactors generations (ALD6, ZWF1, GND1), membrane robustness for efflux pump (YOR1, PDR5, TPO3) and cation/polyamine transport (TPO3). The alteration of metabolic flux to the shikimic pathway was also found in this strain, resulted in the enhanced formation of aromatic amino acid required for cell survival. Enhanced expression of these genes as well as the increase of metabolic flux to shikimic pathway were suggested to result in the robustness of non-flocculating S. cerevisiae haploid strain. (C) 2017 Elsevier Ltd. All rights reserved.
机译:本研究提供了基于基因表达的洞察观察和在不同浓度的抑制化学络合物(ICC)中的培养基中发酵过程中的天然鲁棒酵母酿酒酵母酿酒酵母NBRC849。 菌株中涉及的耐受机制可能通过涉及NAD(H)/ NADP(H)辅因子(ALD6,ZWF1,GND1),Efflux泵(Yor1,PDR5,TPO3)和阳离子的膜稳健性的基因的上调 /多胺运输(TPO3)。 在该菌株中也发现了代谢通量的代谢通量的改变,导致细胞存活所需的芳族氨基酸的形成增强。 提高这些基因的表达以及代谢通量增加到Shikimic途径的增加,导致非絮凝的S.酿酒酵母单倍体菌株的鲁棒性。 (c)2017 Elsevier Ltd.保留所有权利。

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