Combined Proteome and Metabolite-profiling Analyses Reveal Surprising Insights into Yeast Sulfur Metabolism

Metabolomics is considered as an emerging new tool for functional proteomics in the identification of new protein function or in projects aiming at modeling whole cell metabolism. When combined with proteome studies, metabolite-profiling analyses revealed unanticipated insights into the yeast sulfur...

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Veröffentlicht in:The Journal of biological chemistry 2005-07, Vol.280 (26), p.24723-24730
Hauptverfasser: Lafaye, Alexandra, Junot, Christophe, Pereira, Yannick, Lagniel, Gilles, Tabet, Jean-Claude, Ezan, Eric, Labarre, Jean
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container_end_page 24730
container_issue 26
container_start_page 24723
container_title The Journal of biological chemistry
container_volume 280
creator Lafaye, Alexandra
Junot, Christophe
Pereira, Yannick
Lagniel, Gilles
Tabet, Jean-Claude
Ezan, Eric
Labarre, Jean
description Metabolomics is considered as an emerging new tool for functional proteomics in the identification of new protein function or in projects aiming at modeling whole cell metabolism. When combined with proteome studies, metabolite-profiling analyses revealed unanticipated insights into the yeast sulfur pathway. In response to cadmium, the observed overproduction of glutathione, essential for the detoxification of the metal, can be entirely accounted for by a marked drop in sulfur-containing protein synthesis and a redirection of sulfur metabolite fluxes to the glutathione pathway. A kinetic analysis showed sequential and dramatic changes in intermediate sulfur metabolite pools within the first hours of the treatment. Strikingly, whereas proteome and metabolic data were positively correlated under cadmium conditions, proteome and metabolic data were negatively correlated during other growth conditions, i.e. methionine supplementation or sulfate starvation. These differences can be explained by alternative mechanisms in the regulation of Met4, the activator of the sulfur pathway. Whereas Met4 activity is controlled by the cellular cysteine content in response to sulfur source and availability, the present study suggests that Met4 activation under cadmium conditions is cysteine-independent. The results clearly indicate that the metabolic state of a cell cannot be safely predicted based solely on proteomic and/or gene expression data. Combined metabolome and proteome studies are necessary to draw a comprehensive and integrated view of cell metabolism.
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Whereas Met4 activity is controlled by the cellular cysteine content in response to sulfur source and availability, the present study suggests that Met4 activation under cadmium conditions is cysteine-independent. The results clearly indicate that the metabolic state of a cell cannot be safely predicted based solely on proteomic and/or gene expression data. 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subjects Cadmium - chemistry
Cadmium Chloride - chemistry
Chromatography, Liquid
Cysteine - chemistry
Dose-Response Relationship, Drug
Fungal Proteins - chemistry
Gene Expression Regulation, Fungal
Genes, Fungal
Glutathione - chemistry
Glutathione - metabolism
Kinetics
Methionine - chemistry
Methionine - pharmacology
Models, Biological
Proteomics - methods
Saccharomyces cerevisiae - metabolism
Saccharomyces cerevisiae Proteins - chemistry
Sulfates - chemistry
Sulfur - chemistry
Sulfur - metabolism
Time Factors
title Combined Proteome and Metabolite-profiling Analyses Reveal Surprising Insights into Yeast Sulfur Metabolism
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