Just over three-quarters (78%) of the atmosphere comprises inert nitrogen which has very limited availability for biological use. All terrestrial ecosystems need reactive nitrogen and historically this has been in short supply. Artificial nitrogenous fertilizers and fossil fuel combustion are both sources of reactive nitrogen and their use has dramatically altered the global nitrogen cycle. 1. ATMOSPHERIC DEPOSITION Nitrogen deposition largely originates from fossil fuel combustion and animal husbandry. Deposition is highest in central Europe. Only a minor decrease in deposition has been measured on intensive monitoring plots over the past decade. 2. LICHENS Lichens are very sensitive indicators of nitrogen deposition. Deposition is high on...
The impact of atmospheric reactive nitrogen (Nr) deposition on carbon (C) sequestration in soils and...
Forest decline was first identified in Germany in the late 1970's and is now widespread throughout E...
The impact of atmospheric reactive nitrogen (Nr) deposition on carbon (C) sequestration in soils and...
Average nitrogen (N) deposition across Europe has declined since the 1990s. This resulted in decreas...
Hypotheses about the impacts of elevated atmospheric deposition of nitrogen on the forest ecosystem ...
Atmospheric nitrogen (N) pollution is considered responsible for a substantial decline in plant spe...
Nitrogen (N) depositions in Europe are decreasing, but this could not explain faster than expected i...
We evaluated the effect of acidic deposition and nitrogen on Austrian forests soils. Until thirty ye...
Key message Our results indicate that nitrogen deposition is likely to adversely affect forest bryop...
Background and Aims: The response of forest ecosystems to continuous nitrogen (N) deposition is stil...
Elevated levels of nitrogen deposition are altering the normal functioning of seminatural ecosystems...
Despite chronically enhanced nitrogen (N) deposition to forest ecosystems in Europe and NE America, ...
The impact of atmospheric reactive nitrogen (Nr) deposition on carbon (C) sequestration in soils and...
The impact of atmospheric reactive nitrogen (Nr) deposition on carbon (C) sequestration in soils and...
Forest decline was first identified in Germany in the late 1970's and is now widespread throughout E...
The impact of atmospheric reactive nitrogen (Nr) deposition on carbon (C) sequestration in soils and...
Average nitrogen (N) deposition across Europe has declined since the 1990s. This resulted in decreas...
Hypotheses about the impacts of elevated atmospheric deposition of nitrogen on the forest ecosystem ...
Atmospheric nitrogen (N) pollution is considered responsible for a substantial decline in plant spe...
Nitrogen (N) depositions in Europe are decreasing, but this could not explain faster than expected i...
We evaluated the effect of acidic deposition and nitrogen on Austrian forests soils. Until thirty ye...
Key message Our results indicate that nitrogen deposition is likely to adversely affect forest bryop...
Background and Aims: The response of forest ecosystems to continuous nitrogen (N) deposition is stil...
Elevated levels of nitrogen deposition are altering the normal functioning of seminatural ecosystems...
Despite chronically enhanced nitrogen (N) deposition to forest ecosystems in Europe and NE America, ...
The impact of atmospheric reactive nitrogen (Nr) deposition on carbon (C) sequestration in soils and...
The impact of atmospheric reactive nitrogen (Nr) deposition on carbon (C) sequestration in soils and...
Forest decline was first identified in Germany in the late 1970's and is now widespread throughout E...
The impact of atmospheric reactive nitrogen (Nr) deposition on carbon (C) sequestration in soils and...