In order to assess the importance of nitrate-dependent Fe(II) oxidation and its impact on the growth physiology of dominant Fe oxidizers, we counted these bacteria in freshwater lake sediments and studied their growth physiology. Most probable number counts of nitrate-reducing Fe(II)-oxidizing bacteria in the sediment of Lake Constance, a freshwater lake in Southern Germany, yielded about 105 cellsmL-1 of the total heterotrophic nitrate-reducing bacteria, with about 1% (103 cells mL-1) of nitrate-reducing Fe(II) oxidizers. We investigated the growth physiology of Acidovorax sp. strain BoFeN1, a dominant nitrate-reducing mixotrophic Fe(II) oxidizer isolated from this sediment. Strain BoFeN1 uses several organic compounds (but no sugars) as s...
Enrichment and pure cultures of nitrate-reducing bacteria were shown to grow anaerobically with ferr...
Microbially driven nitrate-dependent iron (Fe) oxidation (NDFO) in subsurface environments has been ...
Ferrous iron (Fe(II)) oxidation and nitrate (NO3 (-)) reduction are commonly observed in environment...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
Anaerobic nitrate-dependent Fe(II) oxidation is widespread in various environments and is known to b...
Redox reactions between iron and nitrogen drive the global biogeochemical cycles of these two elemen...
Understanding the mechanisms of anaerobic microbial iron cycling is necessary for a full appreciatio...
A nitrate-dependent Fe(II)-oxidizing bacterium was isolated and used to evaluate whether Fe(II) chem...
In the microbially mediated nitrate-reducing Fe(II) oxidation system, it is recognized that chemical...
In previous studies, three different strains (BrG1, BrG2, and BrG3) of ferrous iron-oxidizing, nitra...
In previous studies, three different strains (BrG1, BrG2, and BrG3) of ferrous iron-oxidizing, nitra...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
Fe(II)–organic matter (Fe(II)–OM) complexes are abundant in the environment and may play a key rol...
The anaerobic oxidation of Fe(II) by subsurface microorganisms is an important part of biogeochemica...
Microorganisms capable of anaerobic nitrate-dependent Fe(II) (ferrous iron) oxidation (ANDFO) contri...
Enrichment and pure cultures of nitrate-reducing bacteria were shown to grow anaerobically with ferr...
Microbially driven nitrate-dependent iron (Fe) oxidation (NDFO) in subsurface environments has been ...
Ferrous iron (Fe(II)) oxidation and nitrate (NO3 (-)) reduction are commonly observed in environment...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
Anaerobic nitrate-dependent Fe(II) oxidation is widespread in various environments and is known to b...
Redox reactions between iron and nitrogen drive the global biogeochemical cycles of these two elemen...
Understanding the mechanisms of anaerobic microbial iron cycling is necessary for a full appreciatio...
A nitrate-dependent Fe(II)-oxidizing bacterium was isolated and used to evaluate whether Fe(II) chem...
In the microbially mediated nitrate-reducing Fe(II) oxidation system, it is recognized that chemical...
In previous studies, three different strains (BrG1, BrG2, and BrG3) of ferrous iron-oxidizing, nitra...
In previous studies, three different strains (BrG1, BrG2, and BrG3) of ferrous iron-oxidizing, nitra...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
Fe(II)–organic matter (Fe(II)–OM) complexes are abundant in the environment and may play a key rol...
The anaerobic oxidation of Fe(II) by subsurface microorganisms is an important part of biogeochemica...
Microorganisms capable of anaerobic nitrate-dependent Fe(II) (ferrous iron) oxidation (ANDFO) contri...
Enrichment and pure cultures of nitrate-reducing bacteria were shown to grow anaerobically with ferr...
Microbially driven nitrate-dependent iron (Fe) oxidation (NDFO) in subsurface environments has been ...
Ferrous iron (Fe(II)) oxidation and nitrate (NO3 (-)) reduction are commonly observed in environment...