In previous studies, three different strains (BrG1, BrG2, and BrG3) of ferrous iron-oxidizing, nitrate-reducing bacteria were obtained from freshwater sediments. All three strains were facultative anaerobes and utilized a variety of organic substrates and molecular hydrogen with nitrate as electron acceptor. In this study, analyses of 16S rDNA sequences showed that strain BrG1 was affiliated with the genus Acidovorax, strain BrG2 with the genus Aquabacterium, and strain BrG3 with the genus Thermomonas. Previously, bacteria similar to these three strains were detected with molecular techniques in MPN dilution series for ferrous iron-oxidizing, nitrate-reducing bacteria inoculated with different freshwater sediment samples. In the present stu...
Fe2+ was an abundant component of ancient anoxic oceans and could have acted as a respiratory electr...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
Enrichment and pure cultures of nitrate-reducing bacteria were shown to grow anaerobically with ferr...
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...
Anaerobic, nitrate-dependent microbial oxidation of ferrous iron was recently recognized as a new ty...
Ferric iron was produced anaerobically from ferrous iron through the metabolic activity of recently ...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
The potential for microbially mediated anaerobic redox cycling of iron (Fe) was examined in a first-...
Pseudogulbenkiania ferrooxidans strain 2002 was isolated as a lithoautotrophic, Fe(II)-oxidizing, ni...
Understanding the mechanisms of anaerobic microbial iron cycling is necessary for a full appreciatio...
Enrichment and pure cultures of nitrate-reducing bacteria were shown to grow anaerobically with ferr...
A lithoautotrophic, Fe(II) oxidizing, nitratereducing bacterium, strain 2002 (ATCC BAA-1479; =DSM 18...
Aquabacterium parvum B6 is a potential nitrate-dependent Fe(II)-oxidizing bacterium. The genes relat...
International audienceIron-reducing bacteria (IRB) are strongly involved in Fe cycling in surface en...
Fe2+ was an abundant component of ancient anoxic oceans and could have acted as a respiratory electr...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
Enrichment and pure cultures of nitrate-reducing bacteria were shown to grow anaerobically with ferr...
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...
Anaerobic, nitrate-dependent microbial oxidation of ferrous iron was recently recognized as a new ty...
Ferric iron was produced anaerobically from ferrous iron through the metabolic activity of recently ...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
The potential for microbially mediated anaerobic redox cycling of iron (Fe) was examined in a first-...
Pseudogulbenkiania ferrooxidans strain 2002 was isolated as a lithoautotrophic, Fe(II)-oxidizing, ni...
Understanding the mechanisms of anaerobic microbial iron cycling is necessary for a full appreciatio...
Enrichment and pure cultures of nitrate-reducing bacteria were shown to grow anaerobically with ferr...
A lithoautotrophic, Fe(II) oxidizing, nitratereducing bacterium, strain 2002 (ATCC BAA-1479; =DSM 18...
Aquabacterium parvum B6 is a potential nitrate-dependent Fe(II)-oxidizing bacterium. The genes relat...
International audienceIron-reducing bacteria (IRB) are strongly involved in Fe cycling in surface en...
Fe2+ was an abundant component of ancient anoxic oceans and could have acted as a respiratory electr...
Microbial nitrate-dependent Fe(II) oxidation is known to contribute to iron biogeochemical cycling; ...
Enrichment and pure cultures of nitrate-reducing bacteria were shown to grow anaerobically with ferr...