May 25, 2026  
2023-2024 Undergraduate Academic Catalog-June Update 
    
2023-2024 Undergraduate Academic Catalog-June Update [ARCHIVED CATALOG]

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CVE 3741 - Design of Stormwater Management Systems

3 lecture hours 0 lab hours 3 credits
Course Description
This course applies the hydrologic principles learned in CVE 3701 - Principles of Water Resources Engineering to the analysis and design of systems for the management of storm water runoff. (prereq: CVE 3701 ) (quarter system prereq: CV 310)
Course Learning Outcomes
Upon successful completion of this course, the student will be able to:
  • Explain the federal, state, and local regulations that govern developments
  • Access the local, state, and federal resources that facilitate storm water management systems design
  • Design conventional urban storm water facilities (e.g., vegetated swales, gutters, storm inlets, storm sewers, outfalls, culverts)
  • Design permanent best management practices to control flow and protect water quality (e.g., wet ponds, infiltration basins)
  • Design construction site erosion control practices to protect water quality
  • Develop written storm water management and construction site erosion control plans
  • Devise a storm water management system to achieve regulatory compliance and maximize sustainability
  • Determine water quantity impacts of development activities through modeling (e.g. HydroCAD)
  • Determine water quality impacts of development activities through modeling (e.g., SLAMM)

Prerequisites by Topic
  • None

Course Topics
  • Case study on how changes in land surface affect storm runoff (water quality and water quantity)
  • Federal, state, and local regulations that govern development, identifying performance goals and permitting requirements for storm water management (project and watershed/community)
  • Examples of stormwater management practices
  • Field trip to see installed storm water management practices
  • Hydrologic cycle and water budget
  • Watershed boundary delineation, geometry, and characterization of soils and land use
  • Rainfall selection criteria and design considerations
  • Travel time and time of concentration methods, segmental flow analysis, and NRCS lag equation
  • Runoff depth and peak flow methods
  • Hydrograph and flow routing analyses
  • Design of traditional rural-section permanent practices (vegetated and non-vegetated swales)
  • Design of traditional urban-section permanent practices (gutter sections, street inlets, storm sewers, manholes, culverts, outlets, riprap)
  • Design of green infrastructure permanent practices (bioretention facilities and other infiltration devices/practices)
  • Multiple event detention design including detention volume estimates, multiple stage outlet flow analysis, and storage and outlet design procedure
  • Modeling of permanent storm water practices to assess and design conveyance capacity and peak flow rate attenuation
  • Modeling of permanent storm water practices to assess and design volume reduction and water quality control
  • Case study on how modeling is used to assess impacts and design watershed-scale programs to achieve desired performance goals (TMDL/NPDES drivers)
  • Design of soft and hard engineered shoreland protection
  • Operations and maintenance of storm water controls
  • Whole life cost of storm water controls (case study)
  • Modeling of construction site erosion control practices (case study)
  • Design term project (engineering review of construction site erosion control and permanent stormwater management plans for a land development project)

Coordinator
Dr. William S. Gonwa, P.E.



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