Not all courses described in the Course and Program Catalogue are offered each year. For a list of course offerings in 2019-2020, please consult the class search website.
The following conventions are used for course numbering:
- 010-099 represent non-degree level courses
- 100-699 represent undergraduate degree level courses
- 700-999 represent graduate degree level courses
Population, economic growth, industrialization, urbanization and energy-use, as causes of environmental pollution. Mass and energy balance for environmental engineering systems under steady state and unsteady state conditions. Contaminant partitioning and transport in air, water and solids. Application of environmental principles (technical and non-technical) to: water resource management, water and wastewater treatment, air pollution control, solid waste management, environmental impact assessment, and environmental ethics. Thermal pollution, noise pollution, greenhouse effect, acid precipitation, ozone depletion, air toxics, and ground-level ozone and fine particulates (photochemical smog). Sustainable development and life cycle analysis. Review of the principles of environmental quality objectives, standards and guidelines.
3 Lecture hours and 2 Practicum/Lab hours and 1 Tutorial hours
Prerequisite(s) or Corequisite(s): [EN First Year Common Core and (BIOL 120 and CHEM 115) or (BIOL 120 and GEOL 121) or (CHEM 115 and GEOL 121)] or EN Two Year Common Core.
Note: Students with credit for ENVE 300 will not receive credit for this course.
An introduction to physical concepts governing movement and storage of nutrients, energy, and water within the plant biosystem (soil-plant-atmosphere). Topics include: physical properties of soil, biogeochemical cycling, plant physiology, and water and energy transport within the plant biosystem. Subject material will provide the foundation for future engineering courses involving biosystems.
3 Lecture hours and 3 Practicum/Lab hours
Formerly: BLE 212
Prerequisite(s) or Corequisite(s): BIOL 120.
Note: Students with credit for EVSC 220, SLSC 240, BLE 212, or ABE 212 will not receive credit for this course.
A study of the principles of sustainable development and the process of environmental impact assessment. Case studies are used to illustrate the EIA process in engineering design of environmental control measures. Concepts of integrated resource management are analyzed as the basis for making linkages between protecting the environment, economic development and public participation.
Formerly: ABE 481, BLE 481, ENVE 481
Prerequisite(s): 60 credit units from this institution.
Note: Students with credit for ABE 481 or BLE 481 or ENVE 481 will not receive credit for this course.
This course introduces additional topics in the discipline of sanitary/environmental engineering. It builds upon previously introduced principles of chemistry, fluid mechanics and fundamentals of sanitary/environmental engineering. Topics covered include design of lime soda ash softening in drinking water treatment; design of biological wastewater treatment systems; and sludge and residual solids management in water and wastewater treatment. An introduction to tertiary wastewater treatment and wastewater disposal issues is also presented.
Formerly: CE 414.
Prerequisite(s): CE 327.
Note: Students with credit for CE 414 will not receive credit for this course.
Current soil degradation issues, land management and reclamation practices are studied for common land uses; e.g., agriculture, construction, urbanization, forestry, mining, and recreation. Major topics include wind and water erosion, soil compaction, soil carbon change, acidification, sodic soils, salinization, and desertification.
3 Lecture hours and 1.5 Tutorial hours
Formerly: ABE 432, BLE 432
Prerequisite(s): ENVE 212 or (BIOL 120 and CHEM 115 and GEOL 121) or (BIOL 120 and 6 credit units from CHEM 100-299, GEOG 100-299, EVSC 210).
Note: Students with credit for ABE 432 or BLE 432 will not receive credit for this course.
This course focuses on the fundamentals and applications of remediation engineering for contaminated sites. The course demonstrates equilibrium phase partitioning, mass transfer and degradation of contaminants in subsurface environments. Engineering design and quantitative analyses of remediation processes and performance for existing remediation technologies will be presented. Finally, the course will explore the engineering aspects of alternative and emerging site remediation technologies.
3 Lecture hours
Prerequisite(s): (GEOL 121 or CHEM 115) and 42 credit units from EN Senior Courses
The design of systems for processing and utilization of by-products generated by the bioresource industries, including primary agriculture, food processing, and forestry. Pollution problems caused by these industries are examined and opportunities for recycling and utilization of by-products are identified. Emphasis is on land as opposed to surface water as a receptor of organic by-products. A comprehensive strategy is developed for approaching pollution control and by-product utilization problems. Students are expected to integrate sociological, regulatory, economic, biochemical and technological considerations in exploring waste treatment and utilization options. Students work in teams to conduct an industrial waste survey and a feasibility study of waste reduction and enhanced waste utilization for a specific local industry, farm, or processing plant. Natural treatment/processing systems are emphasized and topics may include site assessment, composting, cogeneration, and wetlands treatment.
Formerly: ABE 482 and BLE 482
Prerequisite(s) or Corequisite(s): EN Three Year Common Core and 18 credit units from EN Senior Courses.
Note:Students with credit for ABE 482 or BLE 482 will not receive credit for this course.
A final design course in which advanced principles of design are learned by application to a suitable environmental engineering project. Projects normally involve interaction with industrial sponsors who act as clients. The course requires that students work in groups. Group interaction and performance is monitored throughout. Guest lectures from various industrial and regulatory representatives will be provided to enhance the students' design experience.
6 Practicum/Lab hours
Prerequisite(s): ENVE 201 and RCM 300 and GE 348.
Prerequisite(s) or Corequisite(s): CE 320.
Offered occasionally to cover, in depth, topics that are not thoroughly covered in regularly offered courses.
Two 3 credit courses can be taken independently. Topics will be selected according to the student's specific area of interest.
3 Lecture hours
A seminar is held each week throughout the regular session during which students, staff, and invited speakers discuss current research topics. Students are required to attend and to present at least one seminar each academic term.
Students taking the non-thesis Master's degree must register in this course.
Students writing a Master's thesis must register in this course.
Students writing a Ph.D. thesis must register in this course.