PLoS ONE · 2012 · 39 citations · 27 references
Life SciencesCell BiologyMolecular BiologyApoptosisCellular MetabolismRedox BiochemistryDehydration PhysiologyDesiccation ToleranceOxidative StressOxidative Stress MechanismsOxidative Stress PhysiologyRedox SignalingAntioxidant Defense GenesApoptotic Cell Death RegulationOsmotic RehydrationOxidative Stress AdaptationOxidative Stress InjuryOxidative Stress MetabolismOxidative Stress Resistance GenesYeast Adaptation To Stress
The yeast Saccharomyces cerevisiae is able to overcome cell dehydration; cell metabolic activity is arrested during this period but restarts after rehydration. The yeast genes encoding hydrophilin proteins were characterised to determine their roles in the dehydration-resistant phenotype, and STF2p was found to be a hydrophilin that is essential for survival after the desiccation-rehydration process. Deletion of STF2 promotes the production of reactive oxygen species and apoptotic cell death during stress conditions, whereas the overexpression of STF2, whose gene product localises to the cytoplasm, results in a reduction in ROS production upon oxidative stress as the result of the antioxidant capacity of the STF2p protein.
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Carrie Baker Brachmann, Adrian Davies, Gregory J. Cost et al. · Yeast · 1998 · 3.6K citations
Molecular Responses to Water Deficit
Elizabeth A. Bray · PLANT PHYSIOLOGY · 1993 · 842 citations · Full text