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Water Resources Engineering - Homepage Usask

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G4. SYSTEMS APPROACH TO WATER MANAGEMENT<br />

(KUL-code: I874 (Th); I875 (Pr))<br />

Lecturer: LABADIE J.<br />

ECTS-credit: 5 pts<br />

Contact hours: 30 hrs. of theory/30 hrs. of practical<br />

Prerequisites: Mathematics for water engineering (C2), Statistics for water engineering (C3), Surface<br />

hydrology (C6), Information technology (W1) and programming experience in PASCAL,<br />

C, FORTRAN, or BASIC<br />

Time and place: 2nd semester, 13 sessions of 3 hours each, VUB<br />

Course syllabus: Lecture notes<br />

Evaluation: Written examination<br />

Comparable handbook: Mays, L. and Y.K. Tung, 1992. Hydrosystems modeling engineering and management,<br />

McGraw-Hill Book Company, New York.<br />

Course description:<br />

The purpose of this course is to understand and apply the modern tools of systems analysis to the management<br />

and control of water resources and environmental systems. Topics covered include:<br />

- optimal operation of multipurpose reservoir systems<br />

- integrated design of water storage and conveyance systems<br />

- optimal cropping patterns and intraseasonal allocation of irrigation supply<br />

- risk-based design of stochastic reservoir operating rules<br />

- optimal reservoir operation for water quality management<br />

- optimal hydraulic control of canal operations<br />

- river basin management and conjunctive use of groundwater and surface water<br />

- optimal operation of complex multireservoir hydropower systems<br />

- optimal sizing and operation of detention storage for estuarine water quality management<br />

- optimal control of stormwater and combined sewer systems.<br />

Specific systems analysis tools studied for optimal management and control include:<br />

- dynamic programming<br />

- stochastic optimization<br />

- optimal control theory<br />

- network flow optimization<br />

- multiobjective optimization<br />

- expert systems<br />

- genetic algorithms<br />

Class workshops present example problems and train the students on how to use computer software on PC´s for<br />

implementing many of this optimal water management techniques. The practical work applies these tools to a<br />

wide range of water management case studies in the U.S., Brazil, Dominican Republic, Sri Lanka, Egypt,<br />

Pakistan, and Korea.<br />

30 / Course syllabi

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