Course ID: | ENVE 4435/6435. 3 hours. 2 hours lecture and 3 hours lab per week. |
Course Title: | Natural Resources Engineering |
Course Description: | Engineering hydrology, soil erosion, introduction to open
channel design, runoff estimations and calculations, engineered
containment structures, landscape-scale water distribution, and
non-point water quality. |
Oasis Title: | Natural Resources Engineering |
Pre or Corequisite: | ENGR 3160 or ENGR 3160E |
Semester Course Offered: | Offered every year. |
Grading System: | A-F (Traditional) |
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Course Objectives: | Upon successful completion of this course, the student will:
1. Understand why natural resources engineering is important to
society
2. Understand concepts and principles of hydrology
3. Understand foundations of water quality
4. Understand the use of basic engineering containment
structures for managing stormwater and preserving land system
integrity
5. Understand concepts of ecological indicators with respect to
stream and watershed systems
6. Understand the impacts and effects of land disturbance, soil
erosion, and uncontrolled water flow on human and ecological
systems
Upon successful completion of this course, the student will be
able to:
• Predict precipitation for specified frequency and duration of
storms
• Estimate runoff volume and peak runoff rate for design
• Compute infiltration volumes
• Generate runoff hydrographs
• Estimate erosion losses and analyze erosion runoff
• Design vegetated waterways and channels with specified lining
materials
• Apply engineering standards to hydrology and land system
problems
• Assess watershed conditions using ecological and hydrologic
metrics
• Characterize land use for application to engineering
problem‐solving
• Apply modern engineering tools to conduct hydrologic analysis
of pre- and post‐development land disturbing activities and
design a control structure to manage runoff |
Topical Outline: | 1. Hydrologic cycle
a. Precipitation
b. Infiltration
c. Evapotranspiration
d. Runoff
2. Engineering hydrology
a. Watershed systems, assessment, and delineation
b. Design storms and precipitation analysis
c. Runoff analysis
d. SCS method
e. Rational method
f. Peak discharge
g. Runoff hydrographs
3. Soil erosion
4. Water quality
a. Nonpoint and point sources of water pollution
5. Open channel flow
a. Manning’s equation
b. Vegetated waterways
c. Flood routing
6. Landscape-scale containment structures
a. Detention and retention
b. Stormwater ponds
7. Engineering design standards for stormwater
a. Water quality
b. Channel protection
c. Overbank flooding
d. Extreme flooding
8. Design of control structures to manage runoff and peak
discharge
9. Conservation and bioremediation in the environment |