The ecological niche of nitrate-storing Beggiatoa, and their contribution to the removal of sulfide were investigated in coastal sediment. With microsensors a clear suboxic zone of 2–10 cm thick was identified, where neither oxygen nor free sulfide was detectable. In this zone most of the Beggiatoa were found, where they oxidize sulfide with internally stored nitrate. The sulfide input into the suboxic zone was dominated by an upward sulfide flux from deeper sediment, whereas the local production in the suboxic zone was much smaller. Despite their abundance, the calculated sulfide-oxidizing capacity of the Beggiatoa could account for only a small fraction of the total sulfide removal in the sediment. Consequently, most of the sulfide flux i...
Marine sediments are frequently covered by mats of the filamentous Beggiatoa and other large nitrate...
The production and consumption of sulfide and its influence on phosphorous cycling were studied in a...
Bacterial sulfate reduction (SR) is often determined by radiotracer techniques using 35S‐labeled sul...
The ecological niche of nitrate-storing Beggiatoa, and their contribution to the removal of sulfide ...
The main pathways of sulfide oxidation in marine sediments involve complex interactions of chemical ...
Filamentous sulphide‐oxidizing Beggiatoa spp. often occur in large numbers in the coastal seabed wit...
The chemolithoautotrophic strain Beggiatoa sp. 35Flor shows an unusual migration behavior when culti...
A lithotrophic freshwater Beggiatoa strain was enriched in O2-H2S gradient tubes to investigate its ...
Large filamentous sulfide-oxidizing bacteria are capable of forming huge microbial mats at the oxic-...
Beggiatoa inhabit the microoxic zone in sediments. They oxidize reduced sulfur compounds such as sul...
Large filamentous sulfide-oxidizing bacteria are capable of forming huge microbial mats at the oxic-...
The chemolithoautotrophic strain Beggiatoa sp. 35Flor shows an unusual migration behavior when culti...
Filamentous large sulfur-oxidizing bacteria (FLSB) of the family Beggiatoaceae are globally distribu...
Anaerobic sulfide oxidation with nitrate by a freshwater Beggiatoa enrichment cultur
Bacterial sulfate reduction (SR) is often determined by radiotracer techniques using 35S-labeled sul...
Marine sediments are frequently covered by mats of the filamentous Beggiatoa and other large nitrate...
The production and consumption of sulfide and its influence on phosphorous cycling were studied in a...
Bacterial sulfate reduction (SR) is often determined by radiotracer techniques using 35S‐labeled sul...
The ecological niche of nitrate-storing Beggiatoa, and their contribution to the removal of sulfide ...
The main pathways of sulfide oxidation in marine sediments involve complex interactions of chemical ...
Filamentous sulphide‐oxidizing Beggiatoa spp. often occur in large numbers in the coastal seabed wit...
The chemolithoautotrophic strain Beggiatoa sp. 35Flor shows an unusual migration behavior when culti...
A lithotrophic freshwater Beggiatoa strain was enriched in O2-H2S gradient tubes to investigate its ...
Large filamentous sulfide-oxidizing bacteria are capable of forming huge microbial mats at the oxic-...
Beggiatoa inhabit the microoxic zone in sediments. They oxidize reduced sulfur compounds such as sul...
Large filamentous sulfide-oxidizing bacteria are capable of forming huge microbial mats at the oxic-...
The chemolithoautotrophic strain Beggiatoa sp. 35Flor shows an unusual migration behavior when culti...
Filamentous large sulfur-oxidizing bacteria (FLSB) of the family Beggiatoaceae are globally distribu...
Anaerobic sulfide oxidation with nitrate by a freshwater Beggiatoa enrichment cultur
Bacterial sulfate reduction (SR) is often determined by radiotracer techniques using 35S-labeled sul...
Marine sediments are frequently covered by mats of the filamentous Beggiatoa and other large nitrate...
The production and consumption of sulfide and its influence on phosphorous cycling were studied in a...
Bacterial sulfate reduction (SR) is often determined by radiotracer techniques using 35S‐labeled sul...