Hydrology and earth system sciences · 2012 · 32 citations · 96 references
Natural ResourcesEarth SciencesHydrologyCatchment HydrologyEcohydrologyRiver Basin ManagementCatchment EcohydrologyHydrologic CycleHydrology EducationRiparian EcohydrologyRiparian HydrologyRiparian Zone HydrologyCatchment Scale HydrologyCatchment-scale ProcessesEarth Systems Science EducationEcohydrology Of Riparian SystemsHydrology CurriculumRiparian ProcessesRiparian Runoff GenerationVegetation-climate Interactions
Ecohydrology is a rapidly growing trans‑disciplinary science that examines interactions between the hydrological cycle and ecosystems, applied to catchment‑scale integrated land and water resources management, with key spheres including climate‑soil‑vegetation‑groundwater interactions, riparian runoff and flow regime dynamics, and fluvial and groundwater inputs to lakes, reservoirs, estuaries, and coastal zones. The authors propose an educational vision that develops professional and personal competencies to provide deep scientific knowledge in ecohydrology theory and practice, while fostering cross‑cutting skills for collaboration and communication with scientists, resource managers, policy.
Abstract. Ecohydrology is a relatively new and rapidly growing subject area in the hydrology curriculum. It is a trans-disciplinary science derived from the larger earth systems science movement and examining mutual interactions of the hydrological cycle and ecosystems. It is also an applied science focused on problem solving and providing sound guidance to catchment-scale integrated land and water resources management. The principle spheres of ecohydrology include (i) climate-soil-vegetation-groundwater interactions at the land surface with special implications for land use, food production and climate change; (ii) riparian runoff, flooding, and flow regime dynamics in river corridors with special implications for water supply, water quality, and inland fisheries; and (iii) fluvial and groundwater inputs to lakes/reservoirs, estuaries, and coastal zones with special implications for water quality and fisheries. We propose an educational vision focused on the development of professional and personal competencies to impart a depth of scientific knowledge in the theory and practice of ecohydrology and a breadth of cross-cutting knowledge and skills to enable ecohydrologists to effectively collaborate with associated scientists and communicate results to resource managers, policy-makers, and other stakeholders. In-depth knowledge in hydrology, ecology, and biogeochemistry is emphasized, as well as technical skills in data collection, modeling, and statistical analysis. Cross-cutting knowledge is framed in the context of integrated water resources management. Personal competencies to be fostered in educational programs include creative thinking, cooperation, communication, and leadership. We consider a life-long learning context but highlight the importance of master's level training in the professional formation of ecohydrologists.
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