Rising atmospheric CO2 impacts on vegetation physiological processes can alter land feedbacks on precipitation and water resources, but understanding of regional differences in these changes is uncertain. We investigate the impact of rising CO2 on land water resources for different wetness levels using four Earth system models. We find an overall tendency of runoff to increase across all wetness levels. However, runoff increases in wet regions are much larger than those in dry regions, especially in wet seasons. This substantial amplification of contrasts between wet and dry regions increases at 3% per 100 ppm increase in CO2 relative to the historical period, reaching 18% for a quadrupling of CO2, quantified by a new wetting contrast index...
This is the author accepted manuscript. The final version is available from Springer Nature via the ...
The hydrological cycle has a significant impact on human activities and ecosystems, so understanding...
Increasing CO2 levels and temperature are intensifying the global hydrological cycle, with an overal...
Predicting how increasing atmospheric CO2 will affect the hydrologic cycle is of utmost importance f...
The global monsoon is characterised by transitions between pronounced dry and wet seasons, affecting...
Present and future freshwater availability and drought risks are physically tied to the responses of...
Experiments show that elevated atmospheric CO2 (eCO2) often enhances plant photosynthesis and produc...
While recent findings based on satellite records indicate a positive trend in vegetation greenness o...
Biophysical vegetation responses to elevated atmospheric carbon dioxide (CO2) affect regional hydroc...
International audienceThe significant worldwide increase in observed river runoff has been tentative...
Ecosystem water-use efficiency (WUE) is an important metric linking the global land carbon and water...
Global environmental change has implications for the spatial and temporal distribution of water reso...
Quantifying the responses of the coupled carbon and water cycles to current global warming and risin...
Predicting how increasing atmospheric carbon dioxide concentration will affect the hydrologic cycle ...
As CO2 concentration in the atmosphere rises, there is a need for improved physical understanding of...
This is the author accepted manuscript. The final version is available from Springer Nature via the ...
The hydrological cycle has a significant impact on human activities and ecosystems, so understanding...
Increasing CO2 levels and temperature are intensifying the global hydrological cycle, with an overal...
Predicting how increasing atmospheric CO2 will affect the hydrologic cycle is of utmost importance f...
The global monsoon is characterised by transitions between pronounced dry and wet seasons, affecting...
Present and future freshwater availability and drought risks are physically tied to the responses of...
Experiments show that elevated atmospheric CO2 (eCO2) often enhances plant photosynthesis and produc...
While recent findings based on satellite records indicate a positive trend in vegetation greenness o...
Biophysical vegetation responses to elevated atmospheric carbon dioxide (CO2) affect regional hydroc...
International audienceThe significant worldwide increase in observed river runoff has been tentative...
Ecosystem water-use efficiency (WUE) is an important metric linking the global land carbon and water...
Global environmental change has implications for the spatial and temporal distribution of water reso...
Quantifying the responses of the coupled carbon and water cycles to current global warming and risin...
Predicting how increasing atmospheric carbon dioxide concentration will affect the hydrologic cycle ...
As CO2 concentration in the atmosphere rises, there is a need for improved physical understanding of...
This is the author accepted manuscript. The final version is available from Springer Nature via the ...
The hydrological cycle has a significant impact on human activities and ecosystems, so understanding...
Increasing CO2 levels and temperature are intensifying the global hydrological cycle, with an overal...