The depth of oxygen penetration into marine sediments differs considerably from one region to another. In areas with high rates of microbial respiration, O2 penetrates only millimetres to centimetres into the sediments, but active anaerobic microbial communities are present in sediments hundreds of metres or more below the sea floor. In areas with low sedimentary respiration, O2 penetrates much deeper but the depth to which microbial communities persist was previously unknown. The sediments underlying the South Pacific Gyre exhibit extremely low areal rates of respiration. Here we show that, in this region, microbial cells and aerobic respiration persist through the entire sediment sequence to depths of at least 75 metres below sea floor. B...
Diverse microbial communities and numerous energy-yielding activities occur in deeply buried sedimen...
Diverse microbial communities and numerous energy-yielding activities occur in deeply buried sedimen...
Microbes in subseafloor sediments account for a significant fraction of the Earth\u27s total biomass...
The depth of oxygen penetration into marine sediments differs considerably from one region to anothe...
Microbial communities can subsist at depth in marine sediments without fresh supply of organic matte...
Organic matter produced in the ocean has an average C/N ratio of 106:16 (the Redfield ratio). Howeve...
The Clarion-Clipperton Fracture Zone (CCFZ) in the Pacific Ocean is characterized by organic carbon-...
Microbes control the decomposition of organic matter in marine sediments. Decomposition, in turn, co...
Sediment oxygen concentration profiles and benthic microbial oxygen consumption rates were investiga...
Benthic microbial respiration and diffusive oxygen uptake were measured, and used to calculate rates...
The discovery of aerobic microbial communities in nutrient-poor sediments below the seafloor begs th...
Sparse microbial populations persist from seafloor to basement in the slowly accumulating oxic sedim...
The low-productivity South Pacific Gyre (SPG) is Earth\u27s largest oceanic province. Its sediment a...
The Clarion–Clipperton Fracture Zone (CCFZ) in the Pacific Ocean is characterized by organic carbon-...
The Clarion-Clipperton Fracture Zone (CCFZ) in the Pacific Ocean is characterized by organic carbon-...
Diverse microbial communities and numerous energy-yielding activities occur in deeply buried sedimen...
Diverse microbial communities and numerous energy-yielding activities occur in deeply buried sedimen...
Microbes in subseafloor sediments account for a significant fraction of the Earth\u27s total biomass...
The depth of oxygen penetration into marine sediments differs considerably from one region to anothe...
Microbial communities can subsist at depth in marine sediments without fresh supply of organic matte...
Organic matter produced in the ocean has an average C/N ratio of 106:16 (the Redfield ratio). Howeve...
The Clarion-Clipperton Fracture Zone (CCFZ) in the Pacific Ocean is characterized by organic carbon-...
Microbes control the decomposition of organic matter in marine sediments. Decomposition, in turn, co...
Sediment oxygen concentration profiles and benthic microbial oxygen consumption rates were investiga...
Benthic microbial respiration and diffusive oxygen uptake were measured, and used to calculate rates...
The discovery of aerobic microbial communities in nutrient-poor sediments below the seafloor begs th...
Sparse microbial populations persist from seafloor to basement in the slowly accumulating oxic sedim...
The low-productivity South Pacific Gyre (SPG) is Earth\u27s largest oceanic province. Its sediment a...
The Clarion–Clipperton Fracture Zone (CCFZ) in the Pacific Ocean is characterized by organic carbon-...
The Clarion-Clipperton Fracture Zone (CCFZ) in the Pacific Ocean is characterized by organic carbon-...
Diverse microbial communities and numerous energy-yielding activities occur in deeply buried sedimen...
Diverse microbial communities and numerous energy-yielding activities occur in deeply buried sedimen...
Microbes in subseafloor sediments account for a significant fraction of the Earth\u27s total biomass...