The Budyko models provide a transparent framework for analyzing climate-catchment
interactions and therefore have been widely used to quantify the role of vegetation …

Hydrology is an integrative discipline linking the broad array of water‐related research with
physical, ecological, and social sciences. The increasing breadth of hydrological research …

We present a new data set of attributes for 671 catchments in the contiguous United States
(CONUS) minimally impacted by human activities. This complements the daily time series of …

Predicting water runoff in ungauged water catchment areas is vital to practical applications
such as the design of drainage infrastructure and flooding defences, runoff forecasting, and …

Vegetation is an important link between water, atmosphere and land, and the growth of
vegetation is an important indicator of ecosystem change. Therefore, it is essential to study …

Hydrologic models can be categorized as being either Newtonian or Darwinian in nature.
The Newtonian approach requires a thorough understanding of the individual physical …

Water is the resource that will determine the wealth, welfare, and stability of many countries
in the twenty-first century. This book offers a new approach to managing water that will …

The frequency and severity of forest fires, coupled with changes in spatial and temporal
precipitation and temperature patterns, are likely to severely affect the characteristics of …

Climate warming is projected to affect forest water yields but the effects are expected to vary.
We investigated how forest type and age affect water yield resilience to climate warming. To …

Understanding the sensitivity of groundwater generation to climate in a mountain system is
complicated by the tight coupling of snow dynamics to vegetation and topography. To …