© The Ecological Society of America. Reactive nitrogen (N) deposition from intensive agricultural and industrial activity has been identified as the third greatest threat to global terrestrial biodiversity, after land-use and climate change. While the impacts of N deposition are widely acknowledged, their magnitude is poorly quantified. We combine N deposition models, empirical response functions, and vegetation mapping to simulate the effects of N deposition on plant species richness from 1900 to 2030, using the island of Great Britain as a case study. We find that current species richness values – when averaged across five widespread habitat types – are approximately one-third less than without N deposition. Our results suggest that curre...
Nitrogen deposition is known to have major impacts on contemporary ecosystems but few studies have a...
Nitrogen (N) deposition poses a severe risk to global terrestrial ecosystems, and managing this thre...
Atmospheric nitrogen (N) pollution is considered responsible for a substantial decline in plant spec...
Reactive nitrogen (N) deposition from intensive agricultural and industrial activity has been identi...
Reactive nitrogen (N) deposition from intensive agricultural and industrial activity has been identi...
Atmospheric nitrogen (N) deposition is a considerable threat to biodiversity and ecosystem function ...
Increased atmospheric nitrogen (N) deposition is known to reduce plant diversity in natural and semi...
Atmospheric nitrogen (N) deposition is a recognized threat to plant diversity in temperate and north...
Atmospheric nitrogen (N) deposition is a recognized threat to plant diversity in temperate and north...
Human activities, related primarily to agricultural practices and the combustion of fossil fuels for...
Biodiversity is thought to be essential for ecosystem stability, function and long-term sustainabili...
Reactive nitrogen (N) as a result of anthropogenic activities (e.g. fossil fuel combustion, fertilis...
Large areas of Great Britain currently have nitrogen (N) deposition at rates which exceed the thresh...
Atmospheric nitrogen (N) deposition is a recognised threat to plant diversity in temperate and north...
Nitrogen deposition is known to have major impacts on contemporary ecosystems but few studies have a...
Nitrogen (N) deposition poses a severe risk to global terrestrial ecosystems, and managing this thre...
Atmospheric nitrogen (N) pollution is considered responsible for a substantial decline in plant spec...
Reactive nitrogen (N) deposition from intensive agricultural and industrial activity has been identi...
Reactive nitrogen (N) deposition from intensive agricultural and industrial activity has been identi...
Atmospheric nitrogen (N) deposition is a considerable threat to biodiversity and ecosystem function ...
Increased atmospheric nitrogen (N) deposition is known to reduce plant diversity in natural and semi...
Atmospheric nitrogen (N) deposition is a recognized threat to plant diversity in temperate and north...
Atmospheric nitrogen (N) deposition is a recognized threat to plant diversity in temperate and north...
Human activities, related primarily to agricultural practices and the combustion of fossil fuels for...
Biodiversity is thought to be essential for ecosystem stability, function and long-term sustainabili...
Reactive nitrogen (N) as a result of anthropogenic activities (e.g. fossil fuel combustion, fertilis...
Large areas of Great Britain currently have nitrogen (N) deposition at rates which exceed the thresh...
Atmospheric nitrogen (N) deposition is a recognised threat to plant diversity in temperate and north...
Nitrogen deposition is known to have major impacts on contemporary ecosystems but few studies have a...
Nitrogen (N) deposition poses a severe risk to global terrestrial ecosystems, and managing this thre...
Atmospheric nitrogen (N) pollution is considered responsible for a substantial decline in plant spec...