Search result: Catalogue data in Spring Semester 2022

Civil Engineering Master Information
Master Studies (Programme Regulations 2020)
Major Courses
Major in Hydraulic Engineering and Water Resources Management
NumberTitleTypeECTSHoursLecturers
101-0278-00LFlood ProtectionW3 credits2GR. Boes, J. Eberli
AbstractConcepts and structural measures to prevent or mitigate flood damage, planning methods to implement projects in practice
ObjectiveTo get to know processes leading to flood damage, the different concepts and structural measures allowing to prevent or mitigate flood damage, as well as promising practical planning methods to implement flood protection measures in practice.
ContentExplanation of relevant processes: flooding, aggradation, sedimentations, erosion, debris flows.
Concept of different objectives of protection for various land uses (from rural areas to industrial regions).
General possibilities of flood protection / control.
Land use planning on the basis of hazard zones.
Classical procedures against flood damage with the use of examples such as increase of flow capacity, release structures, flood detention basins, polder.
Property protection as continuative measure.
Maintenance.
Considering of overload case, Emergency procedures.
Damage determination and risk analysis.
Management of residual risk.
Conflict of objective during implementation of procedures.
Situatively adjusted approach.
Case studies (group work).
Field trip.
Lecture notesFlood protection script
LiteratureGuidelines of Swiss federal administration (especially Federal Office for the Environment, FOEN)
102-0488-00LWater Resources ManagementW3 credits2GA. Castelletti
AbstractModern engineering approach to problems of sustainable water resources, planning and management of water allocation requires the understanding of modelling techniques that allow to account for comprehensive water uses (thereby including ecological needs) and stakeholders needs, long-term analysis and optimization. The course presents the most relevant approaches to address these problems.
ObjectiveThe course provides the essential knowledge and tools of water resources planning and management. Core of the course are the concepts of data analysis, simulation, optimization and reliability assessment in relation to water projects and sustainable water resources management.
ContentThe course is organized in four parts.
Part 1 is a general introduction to the purposes and aims of sustainable water resources management, problem understanding and tools identification.
Part 2 recalls Time Series Analysis and Linear Stochastic Models. An introduction to Nonlinear Time Series Analysis and related techniques will then be made in order to broaden the vision of how determinism and stochasticity might sign hydrological and geophysical variables.
Part 3 deals with the optimal allocation of water resources and introduces to several tools traditionally used in WRM, such as linear and dynamic programming. Special attention will be devoted to optimization (deterministic and stochastic) and compared to simulation techniques as design methods for allocation of water resources in complex and competitive systems, with focus on sustainability and stakeholders needs.
Part 4 will introduce to basic indexes used in economical and reliability analyses, and will focus on multicriteria analysis methods as a tool to assess the reliability of water systems in relation to design alternatives.
Lecture notesA copy of the lecture handouts will be available on the webpage of the course. Complementary documentation in the form of scientific and technical articles, as well as excerpts from books will be also made available.
LiteratureA number of book chapters and paper articles will be listed and suggested to read. They will also be part of discussion during the oral examination.
Prerequisites / NoticeSuggested relevant courses: Hydrologie I (or a similar content course) and Wasserhaushalt (Teil "Wasserwirtschaft", 4. Sem. UmweltIng., or a similar content course) for those students not belonging to Environmental Engineering.
101-0268-01LPhysical Modelling in HydraulicsW2 credits2GI. Albayrak, B. Hohermuth
AbstractThis lecture focuses on physical hydraulic modelling, measurements and data analysis techniques. The advantages and limitations of the similitude laws and measurement techniques are presented with examples. The knowledge will be applied by the students in individual group work using a hydraulic model at VAW. The lecture is recommended for students with interest in an experimental MSc study at VAW.
ObjectiveTo deepen knowledge on possibilities and limitations of experimental modelling in hydraulic engineering and relevant measurement techniques, and to advance in data analysis i.e. time and frequency domains, error analysis and data interpretation.
ContentFluid properties and basic equations
Similitude and dimensional analysis
Scaling laws and upscaling limits
Modelling techniques and how to build physical scale models
Sediment transport modelling (gravel bed rivers) & Sediment monitoring techniques
Measurement techniques:
Laser Doppler Anemometry (LDA),
Particle Image Velocimetry (PIV),
Particle Tracking Velocimetry (PTV),
Acoustic Doppler Velocimetry (ADV) and Acoustic Doppler Current Profiler (ADCP)
Video-metry and fibre optical instruments
Data analysis including curve fitting and error analysis
Laboratory visit including introduction to experimental facilities
Individual laboratory work in groups (measurement, data analysis and interpretation)
Lecture notesLecture notes/handouts will be available online.
Literatureis specified in the lecture.
Prerequisites / NoticeStrongly recommended: Hydraulics I, Hydraulic Engineering I
101-0288-00LSnow and Avalanches: Processes and Risk ManagementW3 credits2GJ. Schweizer, S. L. Margreth
AbstractThe lecture covers snow and avalanche processes as well as preventive protection measures in the context of integral risk management.
Objective- basics of snow and avalanche mechanics
- methods to model snow and avalanche processes
- interaction of snow and avalanches with structures and forest
- methods of stability evaluation and hazard assessment
- avalanche protection measures in the context of integral risk management
- basics on the design and effectiveness of protection measures
ContentIntroduction, snow precipitation, extreme events, snow loads; snow and snow cover properties; snow-atmosphere interaction; avalanche formation; stability evaluation, avalanche forecasting; avalanche dynamics; avalanche impact on structures; hazard mapping; protection measures (permanent and temporary); integral risk management.
LiteratureArmstrong, R.L. and Brun, E. (Editors), 2008. Snow and Climate - Physical processes, surface energy exchange and modeling. Cambridge University Press, Cambridge, U.K., 222 pp.

Bründl, M., and Margreth, S.: Integrative risk management: The example of snow avalanches, in: Snow and Ice-Related Hazards, Risks, and Disasters (Second Edition), edited by: Haeberli, W., and Whiteman, C., Hazards and Disaster Series, Elsevier, Amsterdam, Netherlands, 259-296, 2021.

BUWAL/SLF, 1984. Richtlinien zur Berücksichtigung der Lawinengefahr bei raumwirksamen Tätigkeiten. EDMZ, Bern.

Egli, T., 2005. Wegleitung Objektschutz gegen gravitative Naturgefahren, Vereinigung Kantonaler Feuerversicherungen (Hrsg.), Bern.

Fierz, C., Armstrong, R.L., Durand , Y., Etchevers, P., Greene, E., McClung, D.M., Nishimura, K., Satyawali, P.K. and Sokratov, S.A., 2009. The International Classification for Seasonal Snow on the Ground. HP-VII Technical Documents in Hydrology, 83. UNESCO-IHP, Paris, France, 90 pp.

Furukawa, Y. and Wettlaufer, J.S., 2007. Snow and ice crystals. Physics Today, 60(12): 70-71.

Margreth, S., 2007. Technische Richtlinie für den Lawinenverbau im Anbruchgebiet. Bundesamt für Umwelt, Bern, WSL Eidg. Institut für Schnee- und Lawinenforschung Davos. 134 S.

McClung. D.M. and Schaerer, P. 2006. The Avalanche Handbook, 3rd ed., The Mountaineers, Seattle.

Mears, A.I., 1992. Snow-avalanche hazard analysis for land-use planning and engineering. 49, Colorado Geological Survey.

Schweizer, J., Bartelt, P., and van Herwijnen, A.: Snow avalanches, in: Snow and Ice-Related Hazards, Risks, and Disasters (Second Edition), 2nd ed., edited by: Haeberli, W., and Whiteman, C., Elsevier, Amsterdam, Netherlands, 377-416, 2021.

Schweizer, J., Jamieson, J.B. and Schneebeli, M., 2003. Snow avalanche formation. Reviews of Geophysics, 41(4): 1016, doi:10.1029/2002RG000123.

Shapiro, L.H., Johnson, J.B., Sturm, M. and Blaisdell, G.L., 1997. Snow mechanics - Review of the state of knowledge and applications. Report 97-3, US Army CRREL, Hanover, NH, U.S.A.
Prerequisites / NoticeFull-day excursion (not mandatory) to Davos, hands-on experience on selected topcis, visit at WSL Institute for Snow and Avalanche Research SLF (early March)
102-0448-00LGroundwater IIW6 credits4GM. Willmann, J. Jimenez-Martinez
AbstractThe course is based on the course 'Groundwater I' and is a prerequisite for a deeper understanding of groundwater flow and contaminant transport problems with a strong emphasis on numerical modeling.
ObjectiveThe course should enable students to understand advanced concepts of groundwater flow and transport and to apply groundwater flow and transport modelling.

the student should be able to
a) formulate practical flow and contaminant transport problems.

b) solve steady-state and transient flow and transport problems in 2 and 3 spatial dimensions using numerical codes based on the finite difference method and the finite element methods.

c) solve simple inverse flow problems for parameter estimation given measurements.

d) assess simple multiphase flow problems.

e) assess spatial variability of parameters and use of stochastic techniques in this task.

f) assess simple coupled reactive transport problems.
ContentIntroduction and basic flow and contaminant transport equation.

Numerical solution of the 3D flow equation using the finite difference method.

Numerical solution to the flow equation using the finite element equation

Numerical solution to the transport equation using the finite difference method.

Alternative methods for transport modeling like method of characteristics and the random walk method.

Two-phase flow and Unsaturated flow problems.

Spatial variability of parameters and its geostatistical representation -geostatistics and stochastic modelling.

Reactive transport modelling.
Lecture notesHandouts
Literature- Anderson, M. and W. Woessner, Applied Groundwater Modeling, Elsevier Science & Technology Books, 448 p., 2002

- J. Bear and A. Cheng, Modeling Groundwater Flow and Contaminant Transport, Springer, 2010

- Appelo, C.A.J. and D. Postma, Geochemistry, Groundwater and Pollution, Second Edition, Taylor & Francis, 2005

- Rubin, Y., Applied Stochastic Hydrology, Oxford University Press, 2003

- Chiang und Kinzelbach, 3-D Groundwater Modeling with PMWIN. Springer, 2001.
Prerequisites / NoticeEach afternoon will be divided into 2 h of lectures and 2h of exercises. Two thirds of the exercises of the course are organized as a computer workshop to get hands-on experience with groundwater modelling.
101-0259-00LRiver RevitalizationW3 credits2GI. Schalko, M. Detert, M. Koksch, C. Weber
AbstractChannel formation of alluvial rivers (regime width, planforms) is presented. Fluvial hydraulics and sediment transport theory are summarized. Principles of environmentally friendly hydraulic engineering are derived from river morphology. Special attention is given to the application to flood protection and river revitalization projects.
ObjectiveThe main processes of alluvial river channel formation are presented. Fluvial hydraulics and sediment transport theories are summarized. From these elements basic principles of environmentally friendly hydraulic engineering are derived.
Lecture notesno lecture notes
Prerequisites / NoticeRiver Engineering (Lecture 101-0258-00L)
101-0269-00LRiver Morphodynamic Modelling Restricted registration - show details W3 credits2GD. F. Vetsch, D. Vanzo
AbstractThe course teaches the basics of morphodynamic modelling, relevant for civil and environmental engineers. The governing equations for sediment transport in open channels and corresponding numerical solution strategies are introduced. The theoretical parts are discussed by examples.
ObjectiveThe goal of the course is twofold. First, the students develop a throughout understanding of the basics of river morphodynamic processes. Second, they get familiar with numerical tools for the simulations in one- and two-dimensions of morphodynamics.
Content- fundamentals of river morphodynamics (Exner equation, bed-load, suspended-load)
- aggradation and degradation processes
- river bars
- non-uniform sediment morphodynamics: the Hirano model
- short and long term response of gravel bed rivers to change in sediment supply
Lecture notesLecture notes, slides shown in the lecture and software can be downloaded
LiteratureCitations will be given in lecture.
Prerequisites / NoticeExercises are based on the simulation software BASEMENT (Link), the open-source GIS Qgis (Link) and code examples written in MATLAB and Python. The applications comprise one- and two-dimensional approaches for the modelling of flow and sediment transport.

Requirements: Numerical Hydraulics, River Engineering, MATLAB and/or Python programming skills would be an advantage.
102-0248-00LInfrastructure Systems in Urban Water Management Information
Prerequisites: 102-0214-02L Urban Water Management I and 102-0215-00L Urban Water Management II.
W3 credits2GJ. P. Leitão Correia , M. Maurer, A. Scheidegger
AbstractAn increasing demand for infrastructure management skills can be observed in the environmental engineering practice. This course gives an introductory overview of infrastructure management skills needed for urban water infrastructures, with a specific focus on performance, risk and engineering economics analyses.
ObjectiveAfter successfully finishing the course, the participants will have the following skills and knowledge:
- Know the key principles of infrastructure management
- Know the basics of performance and risk assessment
- Can perform basic engineering economic analysis
- Know how to quantify the future rehabilitation needs
ContentThe nationwide coverage of water distribution and wastewater treatment is one of the major public works achievements in Switzerland and other countries. Annually and per person, 135,000 L of drinking water is produced and distributed and over 535,000 L of stormwater and wastewater is drained. These impressive services are done with a pipe network with a length of almost 200,000 km and a total replacement value of 30,000 CHF per capita.

Water services in Switzerland are moving from a phase of new constructions into one of maintenance and optimization. The aim today must be to ensure that existing infrastructure is professionally maintained, to reduce costs, and to ensure the implementation of modern, improved technologies and approaches. These challenging tasks call for sound expertise and professional management.

This course gives an introduction into basic principles of water infrastructure management. The focus is primarily on Switzerland, but most methods and conclusions are valid for many other countries.
Lecture notesThe script 'Engineering Economics for Public Water Utilities' can be downloaded from the moodle course page.
CompetenciesCompetencies
Subject-specific CompetenciesConcepts and Theoriesassessed
Techniques and Technologiesassessed
Method-specific CompetenciesAnalytical Competenciesassessed
Decision-makingassessed
Media and Digital Technologiesassessed
Problem-solvingassessed
Project Managementassessed
Social CompetenciesCommunicationfostered
Cooperation and Teamworkfostered
Customer Orientationfostered
Leadership and Responsibilityfostered
Self-presentation and Social Influence fostered
Sensitivity to Diversityfostered
Negotiationfostered
Personal CompetenciesAdaptability and Flexibilityfostered
Creative Thinkingfostered
Critical Thinkingassessed
Integrity and Work Ethicsfostered
Self-awareness and Self-reflection fostered
Self-direction and Self-management fostered
  •  Page  1  of  1