Abstract
Growth under conditions of oxygen restriction results in a generalized decrease in the definition of the mitochondrial membranes, a decrease in the mitochondrial cytochromes, and a decrease in citric acid cycle enzymes of the obligate aerobic yeast Candida parapsilosis. Addition of unsaturated fatty acids and ergosterol to cultures exposed to limited oxygen results in improved definition of the mitochondrial membranes and an increase in the total mitochondrial cytochrome content of the cells. Euflavine completely inhibits mitochondrial protein synthesis in vitro. Its in vivo effect is to cause the formation of giant mitochondrial profiles with apparently intact outer membranes and modified internal membranes; the cristae (in-folds) appear only as apparently disorganized remnants while the remainder of the inner membrane seems intact. Cytochromes a, a(3), b, and c(1) are not synthesized by the cells in the presence of euflavine. Ethidium appears to have effects identical to those of euflavine, whereas chloramphenicol, lincomycin, and erythromycin have similar effects in principle but they are less marked. The effects of all the inhibitors are freely reversible after removal of the drugs. The results are discussed in terms of a functionally three-membrane model of the mitochondrion. In addition, the phylogenetic implications of the observed differences between this organism and the facultative anaerobic yeasts are considered.
MeSH Terms
Acridines/pharmacology
Anti-Bacterial Agents/pharmacology
Candida/cytology,drug effects
Chloramphenicol/pharmacology
Cytochromes/biosynthesis
Erythromycin/pharmacology
Fatty Acids
Lincomycin/pharmacology
Membranes
Microscopy, Electron
Mitochondria/enzymology,metabolism
Oxygen Consumption
Quaternary Ammonium Compounds/pharmacology
Quinolines/pharmacology
Vitamin D
Chemicals
Acridines
Anti-Bacterial Agents
Cytochromes
Fatty Acids
Quaternary Ammonium Compounds
Quinolines
Vitamin D
Erythromycin
Chloramphenicol
Lincomycin
Authors & Affiliations
3 authors, click to expand affiliations / ORCID
Kellerman G M
Biggs D R
Linnane A W
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