
Results from several laboratories indicate that extracellular electron transfer may be a general mechanism whereby microoorganisms generate energy for cell growth and/or maintenance. Specifically, bacteria can use redox-active organic small molecules, generated outside or inside the cells, to shuttle electrons between reduced and oxidized compounds. Electron shuttling has now been reported for several different bacterial species, and exchanges of shuttling compounds may even syntrophically link diverse organisms in nature. Biofilm systems in both geological and clinical settings are likely to be important environments for metabolisms that employ extracellular electron transfer. Both structural and functional analyses suggest that electron shuttles and some virulence factors may be related to one another.
extracellular electron transfer, electron shuttle, Bacteria, Molecular Structure, Iron, 610, Siderophores, Iron respiration, Models, Biological, biofilm, Electron Transport, Metals, Biofilms, Pyocyanine, Phenazines, Energy Metabolism, Oxidation-Reduction
extracellular electron transfer, electron shuttle, Bacteria, Molecular Structure, Iron, 610, Siderophores, Iron respiration, Models, Biological, biofilm, Electron Transport, Metals, Biofilms, Pyocyanine, Phenazines, Energy Metabolism, Oxidation-Reduction
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