Course code GEO300

GEO300 Advanced Hydrogeology

There may be changes to the course due to to corona restrictions. See Canvas and StudentWeb for info.

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Showing course contents for the educational year 2021 - 2022 .

Course responsible: Helen Kristine French
Teachers: Gudny Okkenhaug, Joris Cornelis Stuurop
ECTS credits: 10
Faculty: Faculty of Environmental Sciences and Natural Resource Management
Teaching language: EN, NO
(NO=norsk, EN=Engelsk)
Teaching exam periods:
This course starts in Spring parallel. This course has teaching/avaluation in Spring parallel.
Course frequency: Annually.
First time: 2003H
Preferential right:
-
Course contents:
This course covers advanced methods for mapping and predicting water and solute transport in the subsurface. The course emphasizes a good understanding of the connection between geological conditions, groundwater flow and the interaction between solutes transported in the water phase and particle surfaces. The following topics are covered: the groundwater flow equation, the importance of spatial variability and the application of geostatics, the choice of conceptual model, including boundary conditions, the physical and chemical properties of the subsurface. The latter includes equilibrium considerations and sorption properties. The course includes lectures, exercises, model exercises in the computer room, this can be done in smaller groups. Practicals using groundwater models such as Visual Minteq, MODFLOW and MT3Dms will enable the student to apply theories to test water flow and solute transport in groundwater systems.
Learning outcome:

Knowledge

The student should through the course have acquired knowledge about quantitative methods for describing water and solute transport in the unsaturated and saturated zones. Knowledge obtained about geo-chemical processes, dispersion, diffusion, retardation and degradation should be sufficient for the student to be able to evaluate the effect of human activities on the aquifer system. Students will become familiar with methods to describe the subsurface, including geophysical methods and geostatistics, as well as the use of groundwater models for quantitative prediction of changes. The student should be able to evaluate the risk of changes of groundwater resources quantitatively and qualitatively in view of sustainable management of groundwater.

Skills The student should, on the basis of available national databases and information on geological conditions combined with a specific type of pollution, be able to set up a conceptual model for pollution transport in groundwater. Based on a known situation, the student should be able to suggest methods  to characterize a pollution situation, and be able to predict/estimate the outcome of such a situation using model tools tought in the course, and uncertainties / limitations of measurement methods (field and laboratory) and model calculations.  

General competence Analyze a complex situation, spatially and over time. Be able to present a problem, explain methods, data, analysis results and discuss these with people both with and without backrgound on groundwater .

Learning activities:

1. Lectures - theory of flow in unsaturated and saturated flow and geochemistry.

2. Exercises including application of the theory in calculations and numerical modelling (ICT).

3. Assignments and student presentations (assessment included in the final grade).

4. Practicals including the use of the models Visual Minteq, MODFLOW and MT3DMS

Teaching support:
-
Syllabus:

Text books:

Fundamentals of groundwater, Schwartz and Zhang, 2003, Wiley and sons

Geochemistry, Groundwater and Pollution, Second Edition, Appelo and Postma, 2006, Taylor and Francis group

Copied literature available on Canvas.

Prerequisites:
GEO220 or equivalent.
Recommended prerequisites:
GEO221, MINA200, JORD310, KJM100.
Mandatory activity:
One mandatory exercise and a modelling report.
Assessment:

Total assessment:

  • One home exam representing 30%.
  • Final oral examination representing 70%.

All parts of the evaluation must be passed. Grading system A-E / Not passed.

Nominal workload:
Total 250 hours. Theory: 110 hours. Exercises and hand-ins: 40 hours. Modelling: 100 hours.
Entrance requirements:
Special requirements in Science
Reduction of credits:
-
Type of course:
Lectures and introductions: 40 hours. Exercises: 8 hours. Modelling: 20 hours.
Examiner:
An external examiner will assess the final examen.
Examination details: Combined assessment: A - E / F