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UID:www.bayceer.uni-bayreuth.de-bayceer-t62449id
DTSTAMP:20260820T030453Z
DESCRIPTION:Eingeladen durch Hydrologie (Dr. Fleckenstein. E.A. Sudicky\, A
 . E. Brookfield and Y.-J. Park Department of Earth and Environmental Scien
 ces\, University of Waterloo\, 200 University Ave. W.\, Waterloo\, ON\, CA
 NADA\, N2L 3G1 Thermal stream loadings from both natural and anthropogenic
  sources have significant relevance with respect to ecosystem health and w
 ater resources management\, particularly in the context of future climate 
 change. In recent years\, there has been an increase in field-based resear
 ch directed towards characterizing thermal energy transport exchange proce
 sses that occur at the surface water/groundwater interface of streams. In 
 spite of this effort\, relatively little work has been performed to simula
 te these exchanges and elucidate their roles in mediating surface water te
 mperatures and to simultaneously take into account all the pertinent hydro
 logical\, meteorological and surface/variably-saturated subsurface process
 es. To address this issue\, HydroGeoSphere\, a fully-integrated surface/su
 bsurface flow and transport model\, was enhanced to include fully-integrat
 ed thermal energy transport. HydroGeoSphere can simulate water flow\, evap
 otranspiration\, and advective-dispersive heat and solute transport over t
 he 2D land surface and in the 3D subsurface under variably-saturated condi
 tions. The new thermal capabilities of HydroGeoSphere were tested and veri
 fied by comparing HydroGeoSphere simulation results to those from a well-c
 haracterized reach of the Pine River in Ontario\, Canada. The HydroGeoSphe
 re simulation successfully matched the spatial variations in the thermal p
 atterns observed in the river bed\, the surface water and the groundwater.
  In this paper\, we will use the integrated system modelling framework to 
 explore the physical\, geomorphological and climatic factors controlling t
 he spatial and temporal patterns of the thermal energy exchange fluxes bet
 ween the stream and the underlying groundwater system. The computational f
 ramework can be used to provide quantitative guidance towards establishing
  the conditions needed to maintain conditions for a healthy ecosystem. 
DTSTART;TZID=Europe/Berlin:20090122T170000
DTEND;TZID=Europe/Berlin:20090122T235959
LOCATION:H6
SUMMARY:Prof. Edward Sudicky\, University of Waterloo\, Kanada: Analysis of
  Factors Affecting the Spatio-Temporal Patterns of Thermal Exchange Fluxes
  between Streams and Groundwater
TRANSP:TRANSPARENT
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