Molecular and Cellular Biology · 2004 · 112 citations · 26 references
Life SciencesBiologyMolecular BiologyApoptosisMitochondrial BiologyMitochondrial GeneticsMitochondrial BioenergeticsMitochondrial PhysiologyMitochondrial Stress ResponsesOxidative Damage To BiomoleculesOxidative StressReactive Oxygen SpeciesAntibodiesCellular Oxidative Stress ResponseMitochondrial Oxidative StressOxidative Damage RepairOxidative Stress InjuryPhysiological Stress InductionYeast Mitochondrial BiologyYeast Mitochondrial Genetics
Reactive oxygen species (ROS) are critical molecules produced as a consequence of aerobic respiration. It is essential for cells to control the production and activity of such molecules in order to protect the genome and regulate cellular processes such as stress response and apoptosis. Mitochondria are the major source of ROS within the cell, and as a result, numerous proteins have evolved to prevent or repair oxidative damage in this organelle. The recently discovered OXR1 gene family represents a set of conserved eukaryotic genes. Previous studies of the yeast OXR1 gene indicate that it functions to protect cells from oxidative damage. In this report, we show that human and yeast OXR1 genes are induced by heat and oxidative stress and that their proteins localize to the mitochondria and function to protect against oxidative damage. We also demonstrate that mitochondrial localization is required for Oxr1 protein to prevent oxidative damage.
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Hydroperoxide metabolism in mammalian organs.
B Chance, Helmut Sies, A Boveris · Physiological Reviews · 1979 · 5.8K citations
Heiner Jacob · Bioelectrochemistry and Bioenergetics · 1988 · 4.9K citations
Life Sciences, Biology, Genetics +11
Remodeling of Yeast Genome Expression in Response to Environmental Changes
Helen C. Causton, Bing Ren, Sang Seok Koh et al. · Molecular Biology of the Cell · 2001 · 1.4K citations