A litterbag method was used for studying the variability in chemical and carbon isotopic compositions of four grasses during litter decomposition. After the 300 d degradation, > 90% of litter mass was lost for three C-4 species (Setaria viridis, Eleusine indica, Amaranthus retroflexus) and one C-3 species (Erigeron speciosus). The solid state C-13 NMR spectra showed that mean proportion of aromatic and alkyl carbon increased from ca. 10% to 15% and ca. 10% to 20%, respectively, whereas that of O-alkyl carbon substantially decreased from ca. 70% to 50%. The carbon preference index and average chain length of n-alkanes remained relatively constant, whereas the carbon isotopic compositions of long chain n-alkanes varied < 2 parts per tho...
The organic matter cycle is one of the most fundamental processes in ecosystems affecting the soil a...
In the present study, rates of litter decomposition and microbial biomass nitrogen were monitored ov...
The ratio of isotopes of carbon (13C:12C or δ13C) and nitrogen (15N:14N or δ15N) are common indicato...
The chemical transformations that occur during litter decomposition are key processes for soil organ...
During microbial breakdown of leaf litter a fraction of the C lost by the litter is not released to ...
We show the potentiality of coupling together different compound-specific isotopic analyses in a lab...
Predictions of litter decomposition rates are critical for modelling biogeochemical cycling in terre...
In this study, we describe the seasonal variation in 13C abundance in the litter of two Sphagnum spe...
Plant litter and fine roots are important carbon (C) inputs to soil and a direct source of CO to the...
Predicting the effects of climate change on litter decomposition requires an improved understanding ...
We investigated the fate of root and litter derived carbon in soil organic matter and dissolved orga...
The organic matter cycle is one of the most fundamental processes in ecosystems affecting the soil a...
In the present study, rates of litter decomposition and microbial biomass nitrogen were monitored ov...
The ratio of isotopes of carbon (13C:12C or δ13C) and nitrogen (15N:14N or δ15N) are common indicato...
The chemical transformations that occur during litter decomposition are key processes for soil organ...
During microbial breakdown of leaf litter a fraction of the C lost by the litter is not released to ...
We show the potentiality of coupling together different compound-specific isotopic analyses in a lab...
Predictions of litter decomposition rates are critical for modelling biogeochemical cycling in terre...
In this study, we describe the seasonal variation in 13C abundance in the litter of two Sphagnum spe...
Plant litter and fine roots are important carbon (C) inputs to soil and a direct source of CO to the...
Predicting the effects of climate change on litter decomposition requires an improved understanding ...
We investigated the fate of root and litter derived carbon in soil organic matter and dissolved orga...
The organic matter cycle is one of the most fundamental processes in ecosystems affecting the soil a...
In the present study, rates of litter decomposition and microbial biomass nitrogen were monitored ov...
The ratio of isotopes of carbon (13C:12C or δ13C) and nitrogen (15N:14N or δ15N) are common indicato...