Environmental Engineering
The Environmental Engineering Program at Worcester Polytechnic Institute (WPI) is designed to meet the needs of engineers and scientists in the environmental field. Coursework provides a strong foundation in both the theoretical and practical aspects of the environmental engineering discipline, while project and research activities allow for in-depth investigation of current and emerging topics. Our current areas of focus include:
- quality and quantity of water supplies
- design of water and wastewater treatment systems
- containment transport, transformation and modeling
- waste remediation systems.
We offer flexible programs leading to the degrees of Master of Science, Master of Engineering, and Doctor of Philosophy, as well as certificate programs. You can complete your degree full-time or part-time, on-campus or through distance learning. Our faculty are dedicated to both teaching and research, and will work closely with you to establish a program of study.
For all students applying for this particular program, the background requirements are:
- Mathematics & Science (minimum 4 units equivalent to 12 three-credit courses)
- Mathematics must include differential and integral calculus and differenital equations
- Science must include both chemistry and physics with a minimum of two courses in either
- Fluid Mechanics (An online independent study in Fluid Mechanics is available for graduate level students)
Environmental Engineering Classes
Coursework in environmental engineering expands and strengthens students' knowledge of theoretical concepts and their practical applications. We offer graduate level courses in the broad areas of water quality and waste treatment. Topics covered in classes include the following (a full listing is below): hydraulics and hydrology; physical, chemical and biological treatment systems for water, wastewater, hazardous waste and industrial waste; contaminant transport, transformation and modeling; and water quality. In addition to the courses listed in the graduate catalog, 4000-level undergraduate courses taken at WPI (with additional course work) and graduate-level courses offered by other WPI Departments (with approval) may also be applied to an environmental degree.
Courses typically meet once per week in the evenings for three hours, though some course meet during the day. Full-time students take classes on campus, while part-time students have the option of coming to campus or taking classes through the Advanced Distance Learning Network. A minimum of two environmental engineering courses are offered via ADLN each semester. This allows part-time, off-campus students the ability to complete a Master's degree in only three years.
Environmental Engineering Class Listing
- CE 542 Geohydrology
- CE 560 Advanced Principles of Water Treatment
- CE 561 Advanced Principles of Wastewater Treatment
- CE 562 Biosystems in Environmental Engineering
- CE 5621 Open Channel Hydraulics
- CE 563 Industrial Wastewater Treatment
- CE 564 Solid Waste Management
- CE 565 Stream, Lake, and Estuarine Analysis
- CE 566 Groundwater Flow and Pollution
- CE 567 Hazardous Waste: Containment, Treatment, and Prevention
- CE 570 Multiphase Contaminant Transport
- CE 571 Water Chemistry
- CE 572 Physical & Chemical Treatment Processes
- CE 573 Treatment System Hydraulics
- CE 574 Water Resources Managment
- CE 579 Planning & Design for a Sustainable Built Natural Environment
- CE 591 Environmental Engineering Seminar
- CE 590M Microorganisms in Drinking Water
- CE 590T Treatment System Hydraulics
Environmental Engineering Facilities
Environmental Engineering Laboratory
The WPI CEE Department has an environmental research laboratory in which graduate students conduct thesis and doctoral research. Students may arrange for lab access 24 hours a day and have full use of the state-of-the art equipment. Such equipment includes:
- Agilent 6890 Gas Chromatograph with ECD and FID detectors
- Perkin Elmer Analyst 300 Atomic Absorption Spectrophotometer
- Varian Cary 50 UV-Vis Spectrophotometer
- Shimadzu TOC 500A Organic Carbon Analyzer
- Marathon 21000R Refrigerated Centrifuge
- Eppendorf 5804 Centrifuge
- Laminar Flow Hood
- Revco Ultra-low Temperature Freezer
- ROpureST Reverse Osmosis Water System
- Barnstead Epure Water Purificiation System
- Hach 2100N Turbidimeter
Ancillary equipment includes two fume hoods, waterbaths, refrigerators and incubators, balances, spectrophotometers, pH meters, conductivity meters, DO meters, furnaces, ovens, freezers, and an ultrasonic bath.
Alden Research Laboratory
The CEE Department also maintains a close relationship with Alden Research Laboratory, Inc.(ARL) in Holden, MA. ARL is an engineering laboratory that provides services for analytical, numerical, and physical modeling. The Laboratory, which was established in 1894, maintains large-scale facilities for flow meter calibration and hydraulic modeling. Some of the laboratory's current specialties include flow meter testing, fish protection & passage, air flow modeling, computational fluid dynamics (CFD)
Environmental Engineering Research
The faculty are actively involved in laboratory research, field research, and computational modeling. The environmental engineering program encourages active participation in the pursuit of higher education. As such, students completing a thesis or dissertation receive the support and guidance of all the Department's faculty, with authorized use of laboratory equipment and materials. Some recent thesis/dissertation topics have included the following:
- The Advanced Oxidation of MTBE in the Presence of Zero-valent Iron. MS Thesis by Timothy Theis. (Advisor: J. Bergendahl)
- Ultrasound as a Sole or Synergistic Disinfectant in Drinking Water Treatment. MS Thesis by Kar Wong (Advisor: J. Plummer)
- Physical and Numerical Modeling to Characterize Flow at Pump Intakes. MS Thesis by Stefano Ceriana (Advisor: P. Mathisen)
- A Feasibility Study of Bioremediation in a Highly Organic Soil. MS Thesis by Jami Walsh (Advisor: J. O'Shaughnessy)
- Pilot-Scale Study of Fenton's Reagent for the Oxidation of Organic Contaminants in Groundwater. MS Thesis by Stephanie Hubbard. (Advisor: J. Bergendahl)
- Effects of Grid and Pond Geometry Resolution on Fluxes and Flow Paths into Surface Water Bodies. MS Thesis by Adam Gordon (Advisor: P. Mathisen).
- Assessment of Ultraviolet Radiation as an On-demand Disinfection Technique. MS Thesis by Peter Lavigne. (Advisor: J. Plummer)
- Analysis of Lead Contaminated Soils using X-ray Fluorescence. MS Thesis by Kevin Daoust (Advisor: P. Mathisen)
- Waste Minimization for a Metal Finishing Industry. MS Thesis by Katerina Syrigos (Advisor: J. O'Shaughnessy)
- The Impact of Stagnation on Water Quality in Laboratory Controlled and Field Fire Sprinkler Pipelines. MS Thesis by Jeffrey Murawski (Advisor: F.L. Hart)
Professors at WPI actively practice a lifelong pursuit of knowledge. Below is a listing of the research interests of the environmental engineering professors. Click on their name to see their research home page. If you would like any additional information or are interested in developing a project, send them an e-mail!
Faculty- John Bergendahl - Colloid and surface chemistry. Physiochemical treatment processes. Pollution prevention. jberg@wpi.edu +1-508-831-5772
- Fred Hart - Computer simulation of water quality changes in distribution systems. Tracer analysis of water and wastewater reactors. Impact of extended stagnation on water quality from various pipe materials. flhart@wpi.edu +1-508-831-5421
- Paul Mathisen - Environmental fluid dynamics and coastal processes. Contaminant fate and transport in groundwater and surface water. Exchanges between groundwater and surface water. mathisen@wpi.edu +1-508-831-5343
- James O'Shaughnessy - Pollution prevention for industries and treatment of industrial wastes. Hazardous waste treatment and management. Biological treatment of waste waters. Remediation of contaminated soils. jco@wpi.edu +1-508-831-5309
- Jeanine Plummer - Microbial contamination of water supplies. Source water quality. Disinfection and alternative disinfection strategies. Disinfection byproduct formation. jplummer@wpi.edu +1-508-831-5142
Graduate students and professors in environmental engineering attend conferences regularly to present their research results, learn from other researchers, and network with environmental engineering professionals from around the country. Conferences we have attended include meetings of the American Water Works Association, American Chemical Society, American Geophysical Union, and Water Environment Federation. Some selected publications and presentations from our faculty and students are shown below.
PublicationsBergendahl, J., Grasso, D., Strevett, K., Butkus, M., and Subramanian, K. 2002. A Review of Non-DLVO Interactions in Environmental Colloidal Systems. Reviews in Environmental Science and Biotechnology, 1 (1), 17-38.
Plummer, J.D. and Edzwald, J.K. 2002. Effects of Chlorine and Ozone on Algal Cell Properties and Removal of Algae by Coagulation. Journal of Water Supply: Research and Technology - AQUA, 51 (6), 307-318.
Plummer, J.D. and Edzwald, J.K. 2001. Effect of Ozone on Algae as Precursors for Trihalomethane and Haloacetic Acid Production. Environmental Science and Technology, 35 (18), 3661-3668.
Bergendahl, J. and Grasso, D. 2000. Prediction of Colloid Detachment in a Model Porous Media: Hydrodynamics. Chemical Engineering Science, 55, 1523-1532.
O'Shaughnessy, J.C., and Blanc, F. C. 2000. Aqueous Solvent Removal of Contaminants from Soils. Engineering Considerations and Remediation Strategies: Volume 1, pp. 617 Ð 638. Marcel Decker.
Mathisen, P. and Madsen, O. S. 1999. Waves and currents over a fixed rippled bed III. Bottom and apparent roughness for spectral waves and currents. Journal of Geophysical Research, 104 (C8), 18447-18461.
Mathisen, P. and Madsen, O. S. 1999. Waves and currents over a fixed rippled bed II. Bottom and apparent roughness experienced by currents in the presence of waves. Journal of Geophysical Research, 101 (C7), 16543-16550.
PresentationsPlummer, J. D.; Long, S. C.; Wong, K.; and Mahar, E. J. 2002. Inactivation of E. coli and MS2 Coliphage with Ultrasound and Chlorine. Proceedings of the AWWA Water Quality Technology Conference, Seattle, WA, November 2002.
Bergendahl, J. and Thies, T. 2002. Advanced Oxidation of MTBE with Zero-Valent Iron and Hydrogen Peroxide. 34th Mid-Atlantic Industrial & Hazardous Waste Conference, Rutgers University, NJ, September 20-21, 2002.
Long, S. C.; Pei, R.; Mahar, E. J.; and Plummer, J. D. 2002. Watershed level evaluation of three source-tracking microbial indicators. Proceedings of the AWWA Water Quality Technology Conference, Seattle, WA, November 2002.
Bergendahl, J. and Grasso. D. 2002. Dimensional Analysis of Particle Detachment from Granular Media. 76th ACS Colloid and Surface Science Symposium, University of Michigan, Ann Arbor, MI, June 23 - 26, 2002.
O'Shaughnessy, J. C., Mathis, C. A., and Manz, R. D. 2001. Thermal Desorption Applications for Petroleum Contaminated Soil Remediation. Proceedings of the 1st. International Symposium on Petroleum Contaminated Soils. London, UK, August, 2001.
Potts, J., Pierson, S., Mathisen, P., Hamel, J., and Babau, V. 2001. Wind Energy Resource Assessment of Western and Central Massachusetts. Proceedings of the ASME Wind Energy Symposium, January 2001.
Nardini, C.A., O'Shaughnessy, J.C., and Manz, R.D. 1999. Remediation of Coal Tar, PCB and Chlorinated Solvent Contaminated Soils using Thermal Desorption. Proceedings of the 15th International Conference on Contaminated Soils, Sediments & Water, Amherst, MA., Oct., 1999.
Roberge, J. and Mathisen, P. 1999. Sensitivity Analyses to Assess the Use of Cfd for Predicting the Occurrence of Swirl in Pump Intakes. Proceedings of the Symposium on Industrial Application of Swirling Flows, 1999 ASME/JSME Conference on Fluids Engineering, San Francisco, CA, July 1999.
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