Implications of temperature and sediment characteristics on methane formation and oxidation in lake sediments
about
Temporal variation of methane flux from Xiangxi Bay of the Three Gorges ReservoirSpatial versus day-to-day within-lake variability in tropical floodplain lake CH4 emissions--developing optimized approaches to representative flux measurements.Methane turnover and methanotrophic communities in arctic aquatic ecosystems of the Lena Delta, Northeast Siberia.Methane formation and consumption processes in Xiangxi Bay of the Three Gorges Reservoir.Diversity of active aerobic methanotrophs along depth profiles of arctic and subarctic lake water column and sediments.Methane-derived carbon flow through microbial communities in arctic lake sediments.Spatio-temporal Variation of Sediment Methanotrophic Microorganisms in a Large Eutrophic Lake.Oxidative mitigation of aquatic methane emissions in large Amazonian rivers.Aquatic methane dynamics in a human-impacted river-floodplain of the Danube.Methane emission from feather moss stands.Methane sources in arctic thermokarst lake sediments on the North Slope of Alaska.Riverbed methanotrophy sustained by high carbon conversion efficiency.Temporal variations in methane emissions from emergent aquatic macrophytes in two boreonemoral lakes.Identification of functionally active aerobic methanotrophs in sediments from an arctic lake using stable isotope probing.Cross continental increase in methane ebullition under climate change.Widespread methanotrophic primary production in lowland chalk rivers.Effect of sediment composition on methane concentration and production in the transition zone of a mangrove (Sepetiba Bay, Rio de Janeiro, Brazil).Variability in methane emissions from West Siberia's shallow boreal lakes on a regional scale and its environmental controlsGreenhouse gas production in low-latitude lake sediments responds strongly to warmingReactivity continuum of dissolved organic carbon decomposition in lake waterBringing methanotrophy in rivers out of the shadowsMicrobial methane cycling in the bed of a chalk river: oxidation has the potential to match methanogenesis enhanced by warmingMethane emission from aquatic ecosystems of Mexico CityTimescale dependence of environmental controls on methane efflux from Poyang Hu, ChinaExceptional summer warming leads to contrasting outcomes for methane cycling in small Arctic lakes of GreenlandThe interactive effects of excess reactive nitrogen and climate change on aquatic ecosystems and water resources of the United StatesMethane ebullition and diffusion from northern ponds and lakes regulated by the interaction between temperature and system productivityClimate-forced changes in available energy and methane bubbling from subarctic lakesEnergy input is primary controller of methane bubbling in subarctic lakesTransitions in Arctic ecosystems: Ecological implications of a changing hydrological regimeSpatial and Temporal Variation in Methane Concentrations, Fluxes, and Sources in Lakes in Arctic AlaskaEffects of artificial thermocline deepening on sedimentation rates and microbial processes in the sediment
P2860
Q28681499-5710B11A-35CA-4466-9E57-72714F3F805BQ30413895-031E53D4-8E4D-4FBE-A71D-D8EEE0B130E5Q31102819-50C4AAD7-0E71-421E-B09E-612D07580C54Q33573225-BF7C3CDA-BFC9-4A8A-98E3-6715B509818BQ34272006-A41ADC98-701A-44FD-8120-78FC18B2094EQ35541565-0585262C-A59A-4438-A5A5-AA85DA7BEAF1Q35759331-40DC0D63-9F9D-44FF-9A68-3021110FA4FFQ35922701-F1351882-BE97-4A27-861D-985EF357D0C0Q37426069-37642CC2-777C-4AFF-8B71-03E051D5DD54Q38780752-C0F00120-13E1-46A1-961A-727F3AED4742Q39224319-B6ADAF85-D5E1-4DC9-8779-49760405272CQ40854206-185D992B-BF70-4175-9B5D-D21F456D3876Q41262178-622252BE-8CAC-43BF-9C63-7FE3A118E6FFQ44827132-6639406D-9556-4AAF-B6FF-6ED40A035881Q46255735-8C09C28B-657C-41D2-9699-091577FEE55AQ51243409-7A6718B4-94EE-46D5-93A7-4E0FC65225E8Q53107439-9FD9D350-3345-4D2A-803D-6E0F6BE2BF12Q56920422-2B14CD0C-4C65-4F7A-A883-28EC3667D57CQ57210636-7A535EC2-8CDB-415B-BC12-0CE01F0AA367Q57210691-705E1DB9-8FE5-4E0F-93BC-FD7DF124538AQ57232182-210B2D64-AA40-46F1-AC31-B2C0CF09F381Q57232185-7B85330D-6079-4829-B131-47470DB79359Q57553811-828D965C-DF70-48D7-8A65-143BA8010675Q57890731-ACFBA621-23D6-432D-B45D-287186942589Q57890742-AE77A2EE-6A69-42F9-BEAA-856A7311A0E4Q58069177-9CD0C55D-DF37-438A-8E14-97D8D276EF29Q58082891-847EBE94-38E6-41A0-9471-98431578822BQ58084150-9CE4966E-F059-48CC-AB81-367AA6FA454BQ58084187-F3C0FC5B-93EB-482A-A6DB-69668145436CQ58192213-E0C287EC-F550-497E-A844-36205CB9A4C2Q58259839-82436319-5C7B-42A0-9AE5-C352C56DC33DQ58815885-35492623-4AC1-4215-BACB-EFE69AF061F7
P2860
Implications of temperature and sediment characteristics on methane formation and oxidation in lake sediments
description
article
@en
wetenschappelijk artikel
@nl
наукова стаття, опублікована в лютому 2010
@uk
name
Implications of temperature an ...... nd oxidation in lake sediments
@en
Implications of temperature an ...... nd oxidation in lake sediments
@nl
type
label
Implications of temperature an ...... nd oxidation in lake sediments
@en
Implications of temperature an ...... nd oxidation in lake sediments
@nl
prefLabel
Implications of temperature an ...... nd oxidation in lake sediments
@en
Implications of temperature an ...... nd oxidation in lake sediments
@nl
P1433
P1476
Implications of temperature an ...... nd oxidation in lake sediments
@en
P2093
Nguyen Thanh Duc
P2888
P304
P356
10.1007/S10533-010-9415-8
P577
2010-02-23T00:00:00Z