Rising atmospheric CO (c) has been shown to increase forest carbon uptake. Yet, whether the c-fertilization effect on forests is modulated by changes in sulphur (S) and nitrogen (N) deposition and how N affects ecosystem N availability remains unclear. We explored spatial and temporal (over 30-years) changes in tree-ring δ 13 C-derived intrinsic water-use efficiency (iWUE), δ 18 O and δ 15 N for four species in twelve forests across climate and atmospheric deposition gradients in Britain. The increase in iWUE was not uniform across sites and species-specific underlying physiological mechanisms reflected the interactions between climate and atmospheric drivers (oak and Scots pine), but also an age effect (Sitka spruce). Most species showed n...
In order to predict accurately how elevated atmospheric CO2 concentrations will affect the global ca...
Forest canopies influence our climate through carbon, water and energy exchanges with the atmosphere...
The extent to which atmospheric N deposition is enhancing primary production and CO2sequestration al...
Rising atmospheric CO2 (ca) has been shown to increase forest carbon uptake. Yet, whether the ca- fe...
This study aimed to evaluate the effects of long-term repeated aerial nitrogen (N) and sulphur (S) m...
Concentrations of atmospheric carbon dioxide (CO2) have continued to increase whereas atmospheric de...
Concentrations of atmospheric carbon dioxide (CO₂) have continued to increase whereas atmospheric de...
Atmospheric reactive nitrogen (N) deposition is an important driver of carbon (C) sequestration in f...
Nitrogen (N) deposition and changing climate patterns in the northeastern USA can influence forest p...
The objective of this study is to globally assess the effects of atmospheric nitrogen deposition and...
The drivers of global change, including increases in atmospheric CO2 concentrations, N and S deposit...
The objective of this study is to globally assess the effects of atmospheric nitrogen deposition and...
In many forest ecosystems, nitrogen (N) deposition enhances plant uptake of carbon dioxide, thus red...
In order to predict accurately how elevated atmospheric CO2 concentrations will affect the global ca...
Forest canopies influence our climate through carbon, water and energy exchanges with the atmosphere...
The extent to which atmospheric N deposition is enhancing primary production and CO2sequestration al...
Rising atmospheric CO2 (ca) has been shown to increase forest carbon uptake. Yet, whether the ca- fe...
This study aimed to evaluate the effects of long-term repeated aerial nitrogen (N) and sulphur (S) m...
Concentrations of atmospheric carbon dioxide (CO2) have continued to increase whereas atmospheric de...
Concentrations of atmospheric carbon dioxide (CO₂) have continued to increase whereas atmospheric de...
Atmospheric reactive nitrogen (N) deposition is an important driver of carbon (C) sequestration in f...
Nitrogen (N) deposition and changing climate patterns in the northeastern USA can influence forest p...
The objective of this study is to globally assess the effects of atmospheric nitrogen deposition and...
The drivers of global change, including increases in atmospheric CO2 concentrations, N and S deposit...
The objective of this study is to globally assess the effects of atmospheric nitrogen deposition and...
In many forest ecosystems, nitrogen (N) deposition enhances plant uptake of carbon dioxide, thus red...
In order to predict accurately how elevated atmospheric CO2 concentrations will affect the global ca...
Forest canopies influence our climate through carbon, water and energy exchanges with the atmosphere...
The extent to which atmospheric N deposition is enhancing primary production and CO2sequestration al...