Rising CO₂ concentrations reduce nitrogen availability in alpine grasslands

Keyphrases

• CO2 Concentration 100%
• Rising CO2 100%
• Nitrogen Availability 100%
• Alpine Grassland 100%
• Photorespiration 80%
• N Content 60%
• Eutrophication 60%
• N Availability 40%
• Alpine Plants 40%
• Oligotrophication 40%
• Foliar N 40%
• Germany 20%
• Negative Effects 20%
• Stoichiometry 20%
• Global Change 20%
• Bavarian Alps 20%
• Long-range Transport 20%
• Plant Response 20%
• Biodiversity Hotspot 20%
• Ambient CO2 20%
• Atmospheric CO2 Concentration 20%
• Cultural Values 20%
• Historical Change 20%
• Ecosystem Processes 20%
• N Deposition 20%
• Plant Traits 20%
• Stable Isotope Ratios 20%
• Atmospheric Deposition 20%
• Local Biodiversity 20%
• Plant Function 20%
• Instantaneous Water Use Efficiency 20%
• Carbon Gain 20%
• Competing Hypotheses 20%
• Vascular Plant Species 20%
• N Assimilation 20%
• Alpine Ecosystems 20%
• Foliar 20%
• Reactive N 20%
• Nature Conservation Value 20%
• C Assimilation 20%
• Herbarium Specimens 20%
• Link N 20%
• Global Warming Effect 20%
• CO2 Availability 20%

Agricultural and Biological Sciences

• Grassland 100%
• Photorespiration 100%
• Eutrophication 75%
• Oligotrophication 50%
• Alpine Plants 50%
• Water Use Efficiency 25%
• Global Change 25%
• Plant Response 25%
• Global Warming 25%
• Atmospheric Deposition 25%
• Biodiversity 25%
• Vascular Plant 25%

Earth and Planetary Sciences

• Grassland 100%
• Carbon Dioxide 100%
• Eutrophication 37%
• Germany 12%
• Atmospherics 12%
• Global Change 12%
• Stoichiometry 12%
• Global Warming 12%
• Water Use Efficiency 12%
• Plant Specie 12%
• Nature Conservation 12%
• Atmospheric Deposition 12%
• Vascular Plant 12%
• Long-Distance Transport 12%
• Stable Isotope 12%