Background and aims Sphagnum mosses are ecosystem engineers that create and maintain boreal peatlands. With unique biochemistry, waterlogging and acidifying capacities, they build up meters-thick layers of peat, reducing competition and impeding decomposition. We quantify within-genus differences in biochemical composition to make inferences about decay rates, related to hummock-hollow and fen-bog gradients and to phylogeny. Methods We sampled litter from 15 Sphagnum species, abundant over the whole northern hemisphere. We used regression and Principal Components Analysis (PCA) to evaluate general relationships between litter quality parameters and decay rates measured under laboratory and field conditions. Results Both concentrations of th...
1. Plant growth forms are widely used to predict the effects of environmental changes, such as clima...
International audienceSphagnum mosses are key to northern peatland carbon sequestration. They have a...
Globally, peatlands store twice as much carbon as there is in the atmosphere as CO2. As average glob...
Background and aims Sphagnum mosses are ecosystem engineers that create and maintain boreal peatland...
Background and aims: Sphagnum mosses are ecosystem engineers that create and maintain boreal peatlan...
Background and aims: Plant litter chemistry is a key driver of decomposition in peatlands. This stud...
Peat mosses (Sphagnum) largely govern carbon sequestration in Northern Hemisphere peatlands. We inve...
Peat mosses (Sphagnum) largely govern carbon sequestration in Northern Hemisphere peatlands. We inve...
Sphagnum-dominated peatlands head the list of ecosystems with the largest known reservoirs of organi...
Peat mosses of the genus Sphagnum constitute the bulk of living and dead biomass in bogs. These plan...
In peatlands the reduced decomposition rate of plant litter is the fundamental mechanism making thes...
Peat mosses (Sphagnum) are ecosystem engineers that largely govern carbon sequestration in northern ...
Peat mosses (Sphagnum) largely govern carbon sequestration in Northern Hemisphere peatlands. We inve...
The net accumulation of remains of Sphagnum spp. is fundamental to the development of many peatlands...
Nitrogen (N) deposition may affect litter decomposition and may thus have an impact on the rate of c...
1. Plant growth forms are widely used to predict the effects of environmental changes, such as clima...
International audienceSphagnum mosses are key to northern peatland carbon sequestration. They have a...
Globally, peatlands store twice as much carbon as there is in the atmosphere as CO2. As average glob...
Background and aims Sphagnum mosses are ecosystem engineers that create and maintain boreal peatland...
Background and aims: Sphagnum mosses are ecosystem engineers that create and maintain boreal peatlan...
Background and aims: Plant litter chemistry is a key driver of decomposition in peatlands. This stud...
Peat mosses (Sphagnum) largely govern carbon sequestration in Northern Hemisphere peatlands. We inve...
Peat mosses (Sphagnum) largely govern carbon sequestration in Northern Hemisphere peatlands. We inve...
Sphagnum-dominated peatlands head the list of ecosystems with the largest known reservoirs of organi...
Peat mosses of the genus Sphagnum constitute the bulk of living and dead biomass in bogs. These plan...
In peatlands the reduced decomposition rate of plant litter is the fundamental mechanism making thes...
Peat mosses (Sphagnum) are ecosystem engineers that largely govern carbon sequestration in northern ...
Peat mosses (Sphagnum) largely govern carbon sequestration in Northern Hemisphere peatlands. We inve...
The net accumulation of remains of Sphagnum spp. is fundamental to the development of many peatlands...
Nitrogen (N) deposition may affect litter decomposition and may thus have an impact on the rate of c...
1. Plant growth forms are widely used to predict the effects of environmental changes, such as clima...
International audienceSphagnum mosses are key to northern peatland carbon sequestration. They have a...
Globally, peatlands store twice as much carbon as there is in the atmosphere as CO2. As average glob...