1887

Abstract

The Gram-positive soil bacterium responds to oxidative stress by the activation of different cellular defence mechanisms. These are composed of scavenging enzymes as well as protection and repair systems organized in highly sophisticated networks. In this study, the peroxide and the superoxide stress stimulons of were characterized by means of transcriptomics and proteomics. The results demonstrate that oxidative-stress-responsive genes can be classified into two groups. One group encompasses genes which show similar expression patterns in the presence of both reactive oxygen species. Examples are members of the PerR and the Fur regulon which were induced by peroxide and superoxide stress. Similarly, both kinds of stress stimulated the activation of the stringent response. The second group is composed of genes primarily responding to one stimulus, like the members of the SOS regulon which were particularly upregulated in the presence of peroxide, and many genes involved in sulfate assimilation and methionine biosynthesis which were only induced by superoxide. Several genes encoding proteins of unknown function could be assigned to one of these groups.

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2004-02-01
2019-08-18
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Datasets for all genes significantly upregulated ( Supplementary Table 1) and downregulated ( Supplementary Table 2) by peroxide and paraquat stress.

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Datasets for all genes significantly upregulated ( Supplementary Table 1) and downregulated ( Supplementary Table 2) by peroxide and paraquat stress.

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