Global precipitation patterns and the availability of surface and groundwater are changing as a result of anthropogenic climate change. Global precipitation patterns are affected by variations in large-scale circulation like the narrowing of the tropical rain belts, the expansion of the Hadley Circulation edges and its consequent impact on the position of the extratropical storm tracks, or changes in the monsoon systems. The increase in available water vapor as a response to global warming has led to an intensification of extreme precipitation events, a reduction of the frequency of non-extreme precipitation events, and often a simultaneous increase in both floods and droughts.
Arid to semi-arid and humid regions are projected to experience the largest changes in precipitation, with more intense drought and flooding events, with widespread impacts associated to a relative rapid population growth, as well as increasing levels of socioeconomic disparity. Monsoon regions concentrate a large fraction of the world’s population, with agriculture relying on the timing and amount of rainfall, which is typically characterized by a high interannual variation. Understanding and predicting these long-term changes to the hydrologic cycle are vital, especially for water-scarce regions.
This Research Topic focuses on the global water cycle and its role in climate dynamics in response to climate warming, especially on climate extremes over critical regions such as arid and semi-arid regions, as well as precipitation measurements and modelling required to understand the long-term changes to the water cycle. We invite you to submit your research findings related to the following topics:
• Precipitation extremes associated to mesoscale convective systems, extratropical and tropical cyclones;
• Changes in large scale circulation patterns (monsoons, tropical belt, teleconnections) associated with characteristics of hydroclimatic extremes;
• Detection and attribution of climate extremes in arid to semi-arid regions;
• Exploration and advancement of our understanding of changes in the quantity and quality of water resources in response to a changing climate, through observation, numerical modelling and Machine Learning approaches;
• Impact of land use/land cover changes on the frequency of hydroclimatic extremes (floods, landslides, droughts); and,
• Improved regional water management in response to hydroclimatic extremes..
Global precipitation patterns and the availability of surface and groundwater are changing as a result of anthropogenic climate change. Global precipitation patterns are affected by variations in large-scale circulation like the narrowing of the tropical rain belts, the expansion of the Hadley Circulation edges and its consequent impact on the position of the extratropical storm tracks, or changes in the monsoon systems. The increase in available water vapor as a response to global warming has led to an intensification of extreme precipitation events, a reduction of the frequency of non-extreme precipitation events, and often a simultaneous increase in both floods and droughts.
Arid to semi-arid and humid regions are projected to experience the largest changes in precipitation, with more intense drought and flooding events, with widespread impacts associated to a relative rapid population growth, as well as increasing levels of socioeconomic disparity. Monsoon regions concentrate a large fraction of the world’s population, with agriculture relying on the timing and amount of rainfall, which is typically characterized by a high interannual variation. Understanding and predicting these long-term changes to the hydrologic cycle are vital, especially for water-scarce regions.
This Research Topic focuses on the global water cycle and its role in climate dynamics in response to climate warming, especially on climate extremes over critical regions such as arid and semi-arid regions, as well as precipitation measurements and modelling required to understand the long-term changes to the water cycle. We invite you to submit your research findings related to the following topics:
• Precipitation extremes associated to mesoscale convective systems, extratropical and tropical cyclones;
• Changes in large scale circulation patterns (monsoons, tropical belt, teleconnections) associated with characteristics of hydroclimatic extremes;
• Detection and attribution of climate extremes in arid to semi-arid regions;
• Exploration and advancement of our understanding of changes in the quantity and quality of water resources in response to a changing climate, through observation, numerical modelling and Machine Learning approaches;
• Impact of land use/land cover changes on the frequency of hydroclimatic extremes (floods, landslides, droughts); and,
• Improved regional water management in response to hydroclimatic extremes..
