Plants produce a wide diversity of metabolites. Yet, our understanding of how shifts in plant metabolites as a response to climate change feedback on ecosystem processes remains scarce. Here, we test to what extent climate warming shifts the seasonality of metabolites produced by Sphagnum mosses, and what are the consequences of these shifts for peatland C uptake. We used a reciprocal transplant experiment along a climate gradient in Europe to simulate climate change. We evaluated the responses of primary and secondary metabolites in five Sphagnum species and related their responses to gross ecosystem productivity (GEP). When transplanted to a warmer climate, Sphagnum species showed consistent responses to warming, with an upregulation of e...
High-latitude peatlands contain about one third of the world's soil organic carbon, most of which is...
International audiencePlant communities have a key role in regulating greenhouse gas (GHG) emissions...
International audienceClimate change can alter peatland plant community composition by promoting the...
International audiencePlants produce a wide diversity of metabolites. Yet, our understanding of how ...
International audienceSphagnum genus have a key role in peatland functioning by creating the conditi...
Climate change will influence plant photosynthesis by altering patterns of temperature and precipita...
Peatlands harbour more than one-third of terrestrial carbon leading to the argument that the bryophy...
International audienceBelowground interactions between plants and microorganisms are involved in num...
International audiencePeatlands contain approximately one third of all soil organic carbon (SOC). Wa...
Sphagnum mosses form a major component of northern peatlands, which are expected to experience subst...
1. Vascular plant growth forms in northern peatlands differ in their strategies to cope with the har...
The relative importance of global versus local environmental factors for growth and thus carbon upta...
Plant carbon (C) allocation is a key process determining C cycling in terrestrial ecosystems. In car...
High-latitude peatlands contain about one third of the world's soil organic carbon, most of which is...
International audiencePlant communities have a key role in regulating greenhouse gas (GHG) emissions...
International audienceClimate change can alter peatland plant community composition by promoting the...
International audiencePlants produce a wide diversity of metabolites. Yet, our understanding of how ...
International audienceSphagnum genus have a key role in peatland functioning by creating the conditi...
Climate change will influence plant photosynthesis by altering patterns of temperature and precipita...
Peatlands harbour more than one-third of terrestrial carbon leading to the argument that the bryophy...
International audienceBelowground interactions between plants and microorganisms are involved in num...
International audiencePeatlands contain approximately one third of all soil organic carbon (SOC). Wa...
Sphagnum mosses form a major component of northern peatlands, which are expected to experience subst...
1. Vascular plant growth forms in northern peatlands differ in their strategies to cope with the har...
The relative importance of global versus local environmental factors for growth and thus carbon upta...
Plant carbon (C) allocation is a key process determining C cycling in terrestrial ecosystems. In car...
High-latitude peatlands contain about one third of the world's soil organic carbon, most of which is...
International audiencePlant communities have a key role in regulating greenhouse gas (GHG) emissions...
International audienceClimate change can alter peatland plant community composition by promoting the...