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Vegetation forcing modulates global land monsoon and water resources in a CO2-enriched climate

pmid: 33056977
pmc: PMC7560717
AbstractThe global monsoon is characterised by transitions between pronounced dry and wet seasons, affecting food security for two-thirds of the world’s population. Rising atmospheric CO2 influences the terrestrial hydrological cycle through climate-radiative and vegetation-physiological forcings. How these two forcings affect the seasonal intensity and characteristics of monsoonal precipitation and runoff is poorly understood. Here we use four Earth System Models to show that in a CO2-enriched climate, radiative forcing changes drive annual precipitation increases for most monsoon regions. Further, vegetation feedbacks substantially affect annual precipitation in North and South America and Australia monsoon regions. In the dry season, runoff increases over most monsoon regions, due to stomatal closure-driven evapotranspiration reductions and associated atmospheric circulation change. Our results imply that flood risks may amplify in the wet season. However, the lengthening of the monsoon rainfall season and reduced evapotranspiration will shorten the water resources scarcity period for most monsoon regions.
- Peking University China (People's Republic of)
- University of Reading United Kingdom
- UK Centre for Ecology & Hydrology United Kingdom
- National Centre for Atmospheric Science United Kingdom
- Natural Environment Research Council United Kingdom
Atmospheric Science, Atmospheric sciences, Earth, Planet, Rain, Climate Change and Variability Research, hydrology, Wind, Precipitation, Water Cycle, Sociology, Pathology, Climate change, Climatology, Global and Planetary Change, Evapotranspiration, Geography, Ecology, Q, Temperature, Geology, Surface runoff, FOS: Sociology, Earth and Planetary Sciences, climate change, Physical Sciences, Water Resources, Medicine, Seasons, Global Vegetation Models, atmospheric dynamics, Vegetation (pathology), Monsoon, Science, Climate Change, Radiative forcing, Population, Climate model, Article, Environmental science, Carbon Cycle, Meteorology and Climatology, Meteorology, Biology, Demography, Forcing (mathematics), Atmosphere, Global Forest Drought Response and Climate Change, Australia, FOS: Earth and related environmental sciences, Carbon Dioxide, Models, Theoretical, South America, Numerical Weather Prediction Models, Floods, FOS: Biological sciences, North America, Environmental Science, Hydrology, Water cycle, Tropical monsoon climate, Climate Modeling
Atmospheric Science, Atmospheric sciences, Earth, Planet, Rain, Climate Change and Variability Research, hydrology, Wind, Precipitation, Water Cycle, Sociology, Pathology, Climate change, Climatology, Global and Planetary Change, Evapotranspiration, Geography, Ecology, Q, Temperature, Geology, Surface runoff, FOS: Sociology, Earth and Planetary Sciences, climate change, Physical Sciences, Water Resources, Medicine, Seasons, Global Vegetation Models, atmospheric dynamics, Vegetation (pathology), Monsoon, Science, Climate Change, Radiative forcing, Population, Climate model, Article, Environmental science, Carbon Cycle, Meteorology and Climatology, Meteorology, Biology, Demography, Forcing (mathematics), Atmosphere, Global Forest Drought Response and Climate Change, Australia, FOS: Earth and related environmental sciences, Carbon Dioxide, Models, Theoretical, South America, Numerical Weather Prediction Models, Floods, FOS: Biological sciences, North America, Environmental Science, Hydrology, Water cycle, Tropical monsoon climate, Climate Modeling
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