License and Copyright© 2018 by the authors; CC BY-NC-ND license
Keywordseco-hydrological model; soil and water conservation; the Jinghe River Basin; SWAT; Bani catchment; West Africa; discharge; daily calibration; performance and predictive uncertainty; parameter transfer; distributed hydrological modeling; mesoscale catchment; headwater catchment sensitivity; HydroGeoSphere; damming; hydrologic alteration; eco-hydrology; environmental flow management; coastal watershed; DEM resolution; ecohydrologic modeling; climate change effects; RHESSys; California’s Sierra; CATHY model; subsurface drainage; storage variation; exfiltration; infiltration; overland flow; outlet flow; peak flow; base flow; total flow; HSPF; watershed hydrology; suspended sediment; hydrologic modeling; water resources; San Francisco Bay-Delta; Sacramento River; sediment transport; Soil and Water Assessment Tool (SWAT); hydrological modelling; Hunza river; Upper Indus Basin; snow and glacier-melt; active stream network; recession flow; headwater catchment; parameter estimation; wtershed hydrology; grid-distributed precipitation; Huaihe River basin; linear regression method; coefficient of variation; Pettitt test; wavelet analysis; non-stationarity; flood level; delta flood; Pearl River Delta; urban drainage system; different rainfall scenarios; control characteristics; urban runoff control; flood mitigation; low impact development (LID); China; debris flow; susceptibility; rock engineering system; fuzzy C-means algorithm; interaction; watershed; catchment; models; climate change; ecosystem; management
Accessibility InformationWe are working as quickly as possible to make a fully accessible version of this title. Thank you for your patience.
