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CEE 340
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Hydraulics and Water Resources
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CEE 340: Hydraulics and Water Resources (Required for a BSCE degree)
Analysis of closed-conduit flow and open channel flow. Principles of
surface water hydrology and groundwater hydraulics. Lecture 3 hours; 3
credits.
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Prerequisite: CEE 330 (Hydromechanics)
Co-Requisite: CEE 335 (Civil Engineering Soils and Hydraulic laboratory)
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Water Resources Engineering (4th edition), by Linsley, R. K. et
al., McGraw-Hill Publishing Co., 1992.
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Students completing this course successfully will be able to
- apply continuity and energy equations to pipe flow, including losses
- calculate flow rates in branching pipes and pipe networks
- calculate centrifugal pump characteristics at various rotational speeds using
affinity laws
- determine available net positive suction head in pumped lines
- analyze pumped pipelines, including sketching hydraulic and energy grade lines
- apply energy and momentum principles to open channel flow
- sketch gradually varied open channel flow profiles
- perform hydraulic jump calculations
- determine total runoff hydrographs using the unit hydrograph method
- derive a unit hydrograph from streamflow data
- route flow through channels and reservoirs
- determine the likelihood of flood events using various probabilistic methods,
including plotting positions, Gumbel and log Pearson Type III distributions
- perform economic analysis for water resources planning problems
- calculate drawdowns for steady flow in unconfined aquifers (with and without
rainfall recharge), and for steady and unsteady flow in confined aquifers.
- calculate groundwater aquifer characteristics, including hydraulic conductivity
and transmissivity, using data from observation wells.
- determine required capacity for distribution and conservation reservoirs.
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- Pipe flow: continuity and energy principles, branching pipes and pipe networks (6 hours)
- Centrifugal pump characteristics, net positive suction head (2 hours)
- Pumped lines and flow regulating valves (3 hours)
- Open channel flow: energy and momentum principles (3 hours)
- Open channel flow: gradually varied flow and hydraulic jump (4 hours)
- Surface flow hydrology: unit hydrograph method, rational method (6 hours)
- Surface flow hydrology: channel and reservoir routing (3 hours)
- Probability concepts in planning: annual flood series, frequency distributions (3 hours)
- Engineering economics in water resources planning (3 hours)
- Groundwater hydraulics: basic principles, steady and unsteady confined flow, steady
unconfined flow, unsteady unconfined flow, multiple wells (4 hours)
- Reservoirs: physical characteristics, firm yield and capacity selection (2 hours)
- Ethics and professionalism (3 hours)
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Two 75 minute lecture sessions per week.
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Excel spreadsheet (optional)
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None
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College-level mathematics and basic sciences: 0 credits
Engineering topics: 3 credits
General education: 0 credits
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This course will enhance the student's
- ability to apply knowledge in mathematics, physics, probability and statistics, and
engineering science to civil engineering problems,
- ability to develop design criteria to meet desired needs and to design a civil
engineering system, component, or a process to satisfy these criteria
- ability to identify and formulate an engineering problem, to collect and analyze
relevant data, and to develop a solution,
- understanding of the impact of engineering solutions in a societal and global
context,
- knowledge of current issues and awareness of emerging technologies,
- ability to use modern engineering techniques, skills, and tools including
computer-based tools for civil engineering analysis and design,
- proficiency in environmental and water resources engineering.
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Laura J. Harrell
<lharrell@odu.edu>
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May 21, 2003
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