Glutathione, but not transcription factor Yap1, is required for carbon source-dependent resistance to oxidative stress in Saccharomyces cerevisiae

被引:0
|
作者
Angel F. Maris
Ana Lúcia Kern
Jaqueline N. Picada
Fabiane Boccardi
Martin Brendel
João A. P. Henriques
机构
[1] Departamento de Biof ísica,
[2] Centro de Biotecnologia,undefined
[3] UFRGS,undefined
[4] Av. Bento Gonçalves,undefined
[5] 9.500,undefined
[6] Porto Alegre,undefined
[7] RS,undefined
[8] Brazil e-mail: pegas@dna.cbiot.ufrgs.br,undefined
[9] Institut für Mikrobiologie,undefined
[10] J. W. Goethe-Universität,undefined
[11] Theodor-Stern-Kai 7,undefined
[12] Haus 75,undefined
[13] D-60590 Frankfurt,undefined
来源
Current Genetics | 2000年 / 37卷
关键词
Key words Glutathione; Yap1; H2O2; t-BOOH; Glucose repression; Oxidative stress; Diauxic shift;
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摘要
Resistance of haploid yeast to hydrogen peroxide and to tert-butylhydroperoxide strongly increases when 4% glucose is replaced by glycerol or ethanol as the carbon source of the complex medium. Using a GSH1-promoter-lacZ-fusion reporter construct we could demonstrate that GSH1 is one of the genes that are up-regulated during the shift from fermentative to oxidative metabolism. A gsh1 mutant did not exhibit respiratory growth resistance to H2O2, whereas it was only slightly impaired in acquiring resistance against t-BOOH in the same experimental conditions. An isogenic Δyap1 mutant, although more sensitive to oxidative stress than the wild-type (WT), could increase resistance to both peroxides by a similar factor as observed for the WT when shifted from 4% glucose to a non-fermentable carbon source. This indicates that in this case induction of resistance to oxidative stress is independent from Yap1 and from the Yap1-mediated stress response via the STRE motif.
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页码:175 / 182
页数:7
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