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Sponsored by the
Groundwater Resources Association of California
in conjunction with
the University of California Cooperative Extension Groundwater
Hydrology Program
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Course Description
The use of computer modeling tools has become a standard
practice in many groundwater investigations. Groundwater
resources evaluation, groundwater quality assessment, contamination
site assessment and remediation, environmental impact review,
and other groundwater related activities increasingly rely
on computer models as a means of understanding groundwater
flow and the fate of contaminants in the subsurface. This
course introduces the conceptual principles and practical
aspects of groundwater modeling in an intuitive yet comprehensive
manner. The course objective is to demystify the use of
groundwater models by providing solid understanding of the
principles, methods, assumptions, and limitations of groundwater
models, as well as hands-on experience with the planning,
preparation, execution, presentation, and review of a modeling
project.
Course Topics
- Principles and concepts of groundwater modeling;
- Overview of groundwater modeling software;
- Conceptual model development;
- Data collection and preparation;
- Model grid design;
- Boundary conditions; concepts and application;
- Simulating rivers, lakes, recharge, drainage;
- Modeling multiple aquifer systems;
- Sensitivity analysis;
- Model calibration and verification;
- Contaminant transport modeling;
- Capture zone analysis.
Who Should Attend
The short-course is intended for professional consultants,
technical personnel in engineering/geology firms and irrigation/water
districts, regulatory agency specialists and managers, and
those in the legal community specializing in groundwater
issues. Participants should have a working knowledge of
the principles of groundwater hydrology and be familiar
with the PC Windows 95 (or Windows 2000) environment. No
formal training in computer programming is necessary.
Course Instructors
Graham E. Fogg, Ph.D., is a professor of hydrogeology
with the Hydrology Program of the Department of Land, Air,
and Water Resources, University of California, Davis. He
received a B.S. in hydrology at the University of New Hampshire,
a M.S. in hydrology from the University of Arizona, and
a Ph.D. in geology from the University of Texas at Austin.
He is currently teaching undergraduate and graduate courses
in groundwater hydrology and groundwater modeling. His research
interests include geologic-geostatistical characterization
of subsurface heterogeneity, mass transport in heterogeneous
porous media, numerical modeling of ground-water systems,
and regional hydrogeology. Fogg has 20 years experience
characterizing and analyzing groundwater under a diversity
of conditions in the southwest and western United States.
Thomas Harter, Ph.D., received a B.S. in hydrology
from the University of Freiburg, Germany and a M.S. in hydrology
from the University of Stuttgart, Germany. He received his
Ph.D. in hydrology (with emphasis on subsurface hydrology)
at the University of Arizona, where he became the 1991 Harshbarger
fellow for outstanding research in subsurface flow and transport
modeling. In 1995, he joined the faculty at the Department
of Land, Air, and Water Resources, University of California,
Davis. Harter has been instrumental in developing the University
of California Cooperative Extension Groundwater Hydrology
Program. His research focuses on nonpoint-source pollution
of groundwater, groundwater resources evaluation under uncertainty,
groundwater modeling, and contaminant transport. Dr. Harter
has done extensive modeling of heterogeneous aquifer/vadose
zone systems.
Course Benefits
At the end of the Course, participants should have:
- a well-founded knowledge of the principles of groundwater
flow and transport modeling
- familiarity with the major elements of groundwater
modeling studies
- hands-on experience in designing simple groundwater
flow and transport studies with MODFLOW using popular
groundwater modeling software
- a fundamental understanding of the capabilities and
limitations of groundwater modeling
- an understanding of the appropriate role of groundwater
models in groundwater assessment and management
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