Emergence of [GAR+ ] cells in yeast from sake brewing affects the fermentation properties.

IF 2.2 4区 生物学 Q4 BIOCHEMISTRY & MOLECULAR BIOLOGY Yeast Pub Date : 2023-03-01 DOI:10.1002/yea.3844
Koichi Tanabe, Natshumi Maeda, Honoka Okumura, Jun Shima
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Abstract

In the traditional (kimoto) method of sake (Japanese rice wine) brewing, Saccharomyces cerevisiae yeast cells are exposed to lactate, which is produced by lactic acid bacteria in the seed mash. Lactate promotes the appearance of glucose-repression-resistant [GAR+ ] cells. Herein, we compared the resistance to glucose repression among kimoto, industrial, and laboratory yeast strains. We observed that the frequencies of the spontaneous emergence of [GAR+ ] cells among the kimoto strains were higher than those among the industrial and laboratory strains. The fermentation ability of a kimoto yeast (strain U44) was lower than that of an industrial strain (K701), as [GAR+ ] cells generally showed slower ethanol production. The addition of lactate decreased the fermentation abilities of the K701 strain by increasing the number of [GAR+ ] cells, but it did not affect those of the U44 strain. These results suggest that lactate controlled fermentation by promoting the appearance of [GAR+ ] cells in the industrial sake strains but not in the kimoto strains.

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清酒酿造过程中酵母中[GAR+]细胞的出现影响了发酵性能。
在传统的(kimoto)清酒(日本米酒)酿造方法中,酿酒酵母细胞暴露于乳酸中,乳酸是由种子醪中的乳酸菌产生的。乳酸促进葡萄糖抑制抵抗[GAR+]细胞的出现。在此,我们比较了木本酵母菌株、工业酵母菌株和实验室酵母菌株对葡萄糖抑制的抗性。我们观察到kimoto菌株中自发出现[GAR+]细胞的频率高于工业和实验室菌株。kimoto酵母(菌株U44)的发酵能力低于工业菌株(K701),因为[GAR+]细胞通常表现出较慢的乙醇产量。乳酸的添加通过增加[GAR+]细胞数量来降低K701菌株的发酵能力,但对U44菌株的发酵能力没有影响。这些结果表明,乳酸通过促进工业清酒菌株中[GAR+]细胞的出现来控制发酵,而在kimoto菌株中则没有。
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来源期刊
Yeast
Yeast 生物-生化与分子生物学
CiteScore
5.30
自引率
3.80%
发文量
55
审稿时长
3 months
期刊介绍: Yeast publishes original articles and reviews on the most significant developments of research with unicellular fungi, including innovative methods of broad applicability. It is essential reading for those wishing to keep up to date with this rapidly moving field of yeast biology. Topics covered include: biochemistry and molecular biology; biodiversity and taxonomy; biotechnology; cell and developmental biology; ecology and evolution; genetics and genomics; metabolism and physiology; pathobiology; synthetic and systems biology; tools and resources
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