mBio · 2019 · 162 citations · 50 references
Life SciencesMicrobiologyMicrobial EcologyMicrobial MetabolismMicrobial PhysiologyIron MetabolismRedox EnzymesRedox ProcessesDirect Electron TransferElectron TransferFe(ii) OxidationIron OxidationMicrobial Corrosion Of MetalsMicrobial Iron UptakeMicrobial Redox ProcessesPlanktonic Metabolism
The anaerobic corrosion of iron structures is expensive to repair and can be a safety and environmental concern. It has been known for over 100 years that the presence of anaerobic respiratory microorganisms can accelerate iron corrosion. Multiple studies have suggested that there are sulfate reducers, methanogens, and acetogens that can directly accept electrons from Fe(0) to support sulfate or carbon dioxide reduction. However, all of the strains studied can also use H 2 as an electron donor for growth, which is known to be abiotically produced from Fe(0). Furthermore, no proteins definitely shown to function as extracellular electrical contacts with Fe(0) were identified. The studies described here demonstrate that direct electron transfer from Fe(0) can support anaerobic respiration. They also map out a simple genetic approach to the study of iron corrosion mechanisms in other microorganisms. A better understanding of how microorganisms promote iron corrosion is expected to lead to the development of strategies that can help reduce adverse impacts from this process.
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