Changing land use reduces soil CH₄ uptake by altering biomass and activity but not composition of high-affinity methanotrophs

Keyphrases

• High Affinity 100%
• Grassland 100%
• Land Use Change 100%
• CH4 Uptake 100%
• Methanotrophs 100%
• Afforestation 80%
• Phospholipid Fatty Acids 60%
• Specific Activity 60%
• CH4 Concentration 60%
• Active Methanotrophs 40%
• 13C Incorporation 40%
• Nitrous Oxide 20%
• Forest Soil 20%
• Greenhouse Gas 20%
• Forest Ecosystem 20%
• Ammonium Ion 20%
• Management Tools 20%
• Woody Biomass 20%
• Negative Effects 20%
• Methane 20%
• Inorganic N 20%
• Tree Growth 20%
• Siberia 20%
• Fatty Acid Composition 20%
• Site Preparation 20%
• Ploughing 20%
• Strong Potential 20%
• Reduced Cell 20%
• Observed Effects 20%
• CH4 Oxidation 20%
• Laboratory Incubation 20%
• Oxidizing Bacteria 20%
• 13CH4 20%
• Controlled Environmental Conditions 20%
• Microbial Assemblages 20%
• Biological Factors 20%
• Upland Grassland 20%
• Carbon Management 20%
• Incubation Experiment 20%
• Incubation Study 20%

Agricultural and Biological Sciences

• Land Use 100%
• Methane 100%
• Methanotroph 100%
• Grassland 50%
• Afforestation 33%
• Phospholipid Fatty Acids 25%
• Tree Growth 8%
• Forest Ecosystem 8%
• Alpha Oxidation 8%
• Forest Soil 8%
• Greenhouse Gas 8%
• Site Preparation 8%

Earth and Planetary Sciences

• Methane 100%
• Land Use 100%
• Grassland 50%
• Afforestation 33%
• Phospholipid 25%
• Planetary Atmosphere 16%
• Forest Soil 8%
• Greenhouse Gas 8%
• Forest Ecosystem 8%
• Nitrous Oxide 8%
• Site Preparation 8%
• Carbon Management 8%
• Siberia 8%