Soil slurries collected from rice paddies were incubated anaerobically at different temperatures. Changes in the composition of electron acceptors and electron donors in the slurries were monitored daily. During the incubation NO3- was reduced first, followed by Fe3 and SO42- reduction and methane production. The first two steps in the reduction sequence were exclusive, while competition occurred between sulfate reducers and methanogens. The temperature dependence of the reduction processes was expressed in a Q10 value, which was 2.4 for iron reduction, 1.6 for sulfate reduction and 4.6 for methane production. This means that from 14 oC to 30 oC methane formation rates increased 5.4 times as fast as sulfate reduction rates. This was explain...
Methanogenesis in irrigated rice fields is carried out by methanogenic archaea under strictly anaero...
The response of stable and labile C pools to global warming is uncertain, especially in paddy soils ...
Methane (CH4) is a potent greenhouse gas with a global warming potential of 25 times more than CO2. ...
Soil slurries collected from rice paddies were incubated anaerobically at different temperatures. Ch...
The potentials for sequential reduction of inorganic electron acceptors and production of methane ha...
The intermediary metabolism in methanogenic rice paddy soil was studied by slurry incubation experim...
The shift of incubation temperature in anoxic paddy soil from 30 to 15 degrees C resulted in a rever...
The importance of different anaerobic processes leading to CH4 production in rice paddies is quantif...
The importance of different anaerobic processes leading to CH4 production in rice paddies is quantif...
Wetland rice fields are source of atmospheric methane. Methane is formed following reduction of carb...
The global methane (CH4) budget is based on a sensitive balance between methanogenesis and CH4 oxida...
Rates and pathways of methane production in rice fields were found to change with season. However, f...
The anaerobic oxidation of methane (AOM) in marine ecosystems is ubiquitous and largely coupled to s...
The response of stable and labile C pools to global warming is uncertain, especially in paddy soils ...
Nitrate is known to suppress CH4 production in anoxic soil. Three hypotheses have been proposed to e...
Methanogenesis in irrigated rice fields is carried out by methanogenic archaea under strictly anaero...
The response of stable and labile C pools to global warming is uncertain, especially in paddy soils ...
Methane (CH4) is a potent greenhouse gas with a global warming potential of 25 times more than CO2. ...
Soil slurries collected from rice paddies were incubated anaerobically at different temperatures. Ch...
The potentials for sequential reduction of inorganic electron acceptors and production of methane ha...
The intermediary metabolism in methanogenic rice paddy soil was studied by slurry incubation experim...
The shift of incubation temperature in anoxic paddy soil from 30 to 15 degrees C resulted in a rever...
The importance of different anaerobic processes leading to CH4 production in rice paddies is quantif...
The importance of different anaerobic processes leading to CH4 production in rice paddies is quantif...
Wetland rice fields are source of atmospheric methane. Methane is formed following reduction of carb...
The global methane (CH4) budget is based on a sensitive balance between methanogenesis and CH4 oxida...
Rates and pathways of methane production in rice fields were found to change with season. However, f...
The anaerobic oxidation of methane (AOM) in marine ecosystems is ubiquitous and largely coupled to s...
The response of stable and labile C pools to global warming is uncertain, especially in paddy soils ...
Nitrate is known to suppress CH4 production in anoxic soil. Three hypotheses have been proposed to e...
Methanogenesis in irrigated rice fields is carried out by methanogenic archaea under strictly anaero...
The response of stable and labile C pools to global warming is uncertain, especially in paddy soils ...
Methane (CH4) is a potent greenhouse gas with a global warming potential of 25 times more than CO2. ...