The time that water takes to travel through the terrestrial hydrological cycle and the critical
zone is of great interest in Earth system sciences with broad implications for water quality …

Water transit time is now a standard measure in catchment hydrological and ecohydrological
research. The last comprehensive review of transit time modeling approaches was …

Recent studies on the relationships between catchment storage and water ages using
Travel Time Distributions (TTDs), Residence Time Distributions (RTDs), and StorAge …

Understanding the time water takes as it moves from rain or snowmelt through the terrestrial
system to arrive as stream discharge, or evapotranspiration (ET) is an important hydrologic …

Hydrologists and hydrogeologists both study the flux and storage of water with the numerous
interactions and feedback mechanisms of surface water and groundwater. Traditionally …

Not just the quantities but also the transit times are of crucial importance for understanding
the transfer of water through a catchment. This information is essential, for example, for …

Catchment travel times integrate the multitude of hydrological flow processes and provide
insights into catchment functioning. StorAge Selection (SAS) functions describe how …

A storage‐discharge relation tells us how discharge will change when new water enters a
hydrologic system but not which water is released. Does an incremental increase in …

Residence time distribution (RTD) is a critically important characteristic of groundwater flow
systems; however, it cannot be measured directly. RTD can be inferred from tracer data with …

We address transport by transit times (ie, the age of water parcels leaving a storage as
discharge, deep loss, or evapotranspiration) in subvertical soil systems, key to our …