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Mitochondrial activity is required for the expression of IME1, a regulator of meiosis in yeast.线粒体活性是酵母减数分裂调节因子IME1表达所必需的。
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影响酿酒酵母面包酵母中孢子形成频率和四分体形成的因素。

Factors which affect the frequency of sporulation and tetrad formation in Saccharomyces cerevisiae baker's yeasts.

作者信息

Codón A C, Gasent-Ramírez J M, Benítez T

机构信息

Departmento de Genética, Universidad de Sevilla, Spain.

出版信息

Appl Environ Microbiol. 1995 Feb;61(2):630-8. doi: 10.1128/aem.61.2.630-638.1995.

DOI:10.1128/aem.61.2.630-638.1995
PMID:7574601
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC167324/
Abstract

To clarify the role that respiration, the mitochondrial genome, and interactions of mitochondria and nucleus play on sporulation and to improve the sporogenic ability of several baker's yeasts, an investigation of the effects of different media and culture conditions on baker's yeast sporulation was undertaken. When standard protocols were followed, the sporulation frequency varied between 20 and 60% and the frequency of four-spore asci varied between 1 and 6%. Different presporulation and sporulation media, the use of solid versus liquid media, and incubation at 22 versus 30 degrees C were checked, and the cells were collected from presporulation media in either exponential or stationary phase. Best results, yielding sporulation and four-spore ascus formation frequencies up to 97 and 60%, respectively, were obtained by collection of the cells in exponential phase from liquid presporulation medium with 10% glucose and transfer of them to sporulation medium with 0.5% potassium acetate at 22 degrees C. Under these conditions, the most important factor was the growth phase (exponential versus stationary) at which cells from presporulation medium were collected. Changes in sporulation frequencies were also measured after transfer of mitochondria from different sources to baker's yeasts. When mitochondria from laboratory, baker's, and wine yeasts were transferred to baker's and laboratory petite strains, sporulation and four-spore ascus formation frequencies dropped dramatically either to no sporulation at all or to less than 50% in both parameters. This transfer also resulted in an increase in the frequency of petite mutant formation but yielded similar growth and respiration rates in glycerol.(ABSTRACT TRUNCATED AT 250 WORDS)

摘要

为阐明呼吸作用、线粒体基因组以及线粒体与细胞核的相互作用在孢子形成过程中所起的作用,并提高几种面包酵母的孢子形成能力,我们开展了一项关于不同培养基和培养条件对面包酵母孢子形成影响的研究。按照标准方案操作时,孢子形成频率在20%至60%之间变化,四孢子子囊的频率在1%至6%之间变化。我们检查了不同的孢子形成前和孢子形成培养基、固体培养基与液体培养基的使用情况,以及在22摄氏度和30摄氏度下的培养情况,并且从处于指数生长期或稳定期的孢子形成前培养基中收集细胞。通过从含有10%葡萄糖的液体孢子形成前培养基中收集处于指数生长期的细胞,并将其转移至含有0.5%醋酸钾的孢子形成培养基中,于22摄氏度培养,分别获得了高达97%和60%的孢子形成及四孢子子囊形成频率的最佳结果。在这些条件下,最重要的因素是收集孢子形成前培养基中细胞时所处的生长阶段(指数生长期与稳定期)。将不同来源的线粒体转移至面包酵母后,也测定了孢子形成频率的变化。当将来自实验室酵母、面包酵母和葡萄酒酵母的线粒体转移至面包酵母和实验室小菌落菌株时,孢子形成及四孢子子囊形成频率均大幅下降,要么完全不形成孢子,要么这两个参数均降至50%以下。这种转移还导致小菌落突变体形成频率增加,但在甘油中的生长和呼吸速率相似。(摘要截选至250词)