酵母菌中广泛分布的 D-木糖脱氢酶揭示了生物乙醇生产中 D-木糖代谢的新元素。

IF 2.4 4区 生物学 Q3 BIOTECHNOLOGY & APPLIED MICROBIOLOGY
Juliana P Galhardo, André P Piffer, Mateus B Fiamenghi, Guilherme Borelli, Duguay R M da Silva, Adrielle A Vasconcelos, Marcelo F Carazzolle, Gonçalo A G Pereira, Juliana José
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引用次数: 0

摘要

酵母对 D-木糖的利用是提高第二代乙醇生产的一个基本特征。然而,工业酵母菌株无法消耗 D-木糖。以前对消耗或发酵 D-木糖的酵母菌种进行的分析表明,与这种表型相关的基因组特征非常复杂,至今仍不完全清楚。在这里,我们介绍了一种以前被忽视的与D-木糖代谢有关的酵母酶--D-木糖脱氢酶(XylDH),它至少存在于105个酵母基因组中。通过分析 XylDH 基因家族,我们发现了以密码子纯化选择为标志的基因进化证据,以及在 D-木糖消耗和发酵物种中的正选择证据,这表明 XylDH 对酵母中 D-木糖相关表型的重要性。此外,尽管我们在酵母基因组中没有发现 XylDH 的推定代谢途径,即没有该酶的三种细菌已知途径,但我们还提供了两种酵母在 D-木糖还原酶之后在 D-木糖培养基上的表达概况,这些酵母都有公开的转录组。基于这些结果,我们认为 XylDH 在酵母菌利用 D-木糖的过程中发挥了重要作用,它很可能通过减少 D-木糖还原酶途径中的辅因子失衡而参与了辅因子再生系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wide distribution of D-xylose dehydrogenase in yeasts reveals a new element in the D-xylose metabolism for bioethanol production.

D-xylose utilization by yeasts is an essential feature for improving second-generation ethanol production. However, industrial yeast strains are incapable of consuming D-xylose. Previous analyzes of D-xylose-consuming or fermenting yeast species reveal that the genomic features associated with this phenotype are complex and still not fully understood. Here we present a previously neglected yeast enzyme related to D-xylose metabolism, D-xylose dehydrogenase (XylDH), which is found in at least 105 yeast genomes. By analyzing the XylDH gene family, we brought evidence of gene evolution marked by purifying selection on codons and positive selection evidence in D-xylose-consuming and fermenting species, suggesting the importance of XylDH for D-xylose-related phenotypes in yeasts. Furthermore, although we found no putative metabolic pathway for XylDH in yeast genomes, namely the absence of three bacterial known pathways for this enzyme, we also provide its expression profile on D-xylose media following D-xylose reductase for two yeasts with publicly available transcriptomes. Based on these results, we suggest that XylDH plays an important role in D-xylose usage by yeasts, likely being involved in a cofactor regeneration system by reducing cofactor imbalance in the D-xylose reductase pathway.

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来源期刊
FEMS yeast research
FEMS yeast research 生物-生物工程与应用微生物
CiteScore
5.70
自引率
6.20%
发文量
54
审稿时长
1 months
期刊介绍: FEMS Yeast Research offers efficient publication of high-quality original Research Articles, Mini-reviews, Letters to the Editor, Perspectives and Commentaries that express current opinions. The journal will select for publication only those manuscripts deemed to be of major relevance to the field and generally will not consider articles that are largely descriptive without insights on underlying mechanism or biology. Submissions on any yeast species are welcome provided they report results within the scope outlined below and are of significance to the yeast field.
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