Coordinator of Graduate Studies
Amsden, B.G., Cunningham, M.F.1, Giacomin, A.J.2, Guay, M., Harris, T.J., Hutchinson, R.A., Kontopoulou, M., McAuley, K.B., McLellan, P.J., Neufeld, R.J., Parent, J.S., Peppley, B.A., Ramsay, J.A., Woodhouse, K.A.
Barz, D., Escobedo, C., Fitzpatrick, L., Li, X., Wells, L.
Baker, W.E., Becker, H.A., Daugulis, A.J., Hsu, C.C., Hunter, B.K., McCowan, J.D.
Adjunct Associate Professor
Karan, K., Ramsay, B.A., Waldman, S.
Adjunct Assistant Professor
Cross-Appointed from other Departments
Champagne, P., Liss, S.N., Whitney, R.A., Zeman, F.
1 Ontario Research Chair in Green Chemistry and Engineering
2 Canada Research Chair (Tier I ) Rheology
The Chemical Engineering department is based in Dupuis Hall, which is a multi-purpose facility with extensive research laboratories, and large-and small-group teaching classrooms. Department researchers in the biochemical, biomedical and environmental engineering fields also have laboratory facilities in the multi-disciplinary Biosciences complex, and in the Human Mobility Research Centre (HMRC) at Kingston General Hospital. We are a medium-sized department, with sufficient size to ensure a breadth of research activities, yet small enough to foster a cohesive learning environment. Research serials and books are housed in the recently renovated Engineering, Mathematics, and Science library, and a variety of search and document delivery facilities are available on-line. Research is being conducted in the fields of polymer and reaction engineering, (including fuel cells), biochemical (including biomedical and environmental), and process systems engineering. Facilities within the polymer and reaction engineering field include a variety of bench and pilot scale polymerization reactors (gas-phase polyolefin, solution and emulsion free-radical, living-radical and condensation polymer systems), polymer processing equipment (twin-screw extruder, Haake internal mixer), rotational and capillary rheometers, fuel cell equipment, plus two wind tunnels and a gas fired research furnace. The biochemical research facilities include numerous fermentors and a fermentation pilot plant, and biomedical research facilities include cell and tissue culture labs. A new characterization lab has been established for the measurement of polymeric physical, thermal and structural properties. Physical measurements and chemical analyses are carried out using a variety of instruments such as gas chromatographs, elemental analyzer, HPLCs, gel permeation chromatographs, BET surface area analyzer, capillary hydro-dynamic fractionation submicron particle size analyzer, spectrophotometers, IR, FTIR, GC mass spectroscopy, and also by means of novel probes based in light scattering, absorption and fluorescence. Research computations are conducted on a variety of PC and Unix-based computer platforms, using a wide range of symbolic computation, numerical analysis, statistical analysis and process simulation software. The research laboratories are supported by the departmental laboratory technologist while the computing facilities are supported by a departmental computing systems administrator with support from the Central Applied Science Computing Services Group.
The Department of Chemical Engineering endeavours as much as possible to ensure that every full-time graduate student engaged in research has adequate financial support during his or her graduate program. This support may come from several sources, either individually or in combination with National or Provincial scholarships, Queen's University scholarships and awards, research assistantships provided by faculty researchers, and Departmental teaching assistantships. The minimum level of financial support is presently $25,000 per year for both Master's and Doctoral students. Students who are National Scholarship winners can expect overall financial support that is competitive with that provided by any Chemical Engineering department in Canada.
|Fields of Research
The fields of research in the department are Biochemical Engineering, Polymers and Reaction Engineering, and Process Systems Engineering. Within these broad areas, the department has
significant research activity in the following areas:
- Biochemical Engineering: Biological
conversion of biological feedstocks to energy, materials and useful ends (e.g.,
degradation of pollutants). Feedstocks may be virgin sourced or may be waste
material such as agricultural waste. Separation of products is also studied
including the use of phase partitioning bioreactors to combine bioreaction and
separation. Researchers: Andrew Daugulis, Ron Neufeld, Juliana Ramsay, Bruce
Ramsay (Adjunct Professor) and Pascale Champagne (cross-appointed).
Engineering: Biological conversion
of pollutants to benign products using fermenters or in situ processing of
contaminated soils. Work is also underway examining turbulent dispersion in the
environment, primarily for air quality. Researchers: Juliana Ramsay, Bruce
Ramsay and Andrew Daugulis.
Processes and Products: Polymer
& reaction engineering with a broader title to include biological
macro-molecules as well. The department has a particularly strong research
concentration in this area, with one of the largest polymer engineering groups
in North America and elsewhere internationally. The research expertise spans
the entire range of polymer engineering, from polymer reaction chemistry, to
polymer reaction engineering, to processing and compounding. Expertise in
biopolymers and biomaterials includes hydrogels, scaffold material for tissue
regeneration, encapsulation of bioactive materials, polyurethanes for
biomedical application and polymer gel dosimetry. Researchers: Brian Amsden,
Michael Cunningham, A. Jeffrey Giacomin (CRC Tier I) Robin Hutchinson, Marianna
Kontopoulou, Kim McAuley, Scott Parent, Ron Neufeld and Kim Woodhouse.
engineering including scaffolds for adipose and muscle tissue regeneration,
mechanical stimulation to promote regeneration, interaction between surfaces
and cells in regeneration, oral delivery of insulin and polymer gel dosimeters.
Researchers: Brian Amsden, Lindsay Fitzpatrick, Lauren Flynn (Western
University), Ron Neufeld, Laura Wells, Kim Woodhouse and Steve Waldman. More
information about the program can be found at: http://engineering.queensu.ca/programs/bme/
- Process Systems
control, optimization and applied statistics, including extremum-seeking
control, parameter estimation in nonlinear dynamic models, diagnostics for
statistical model building and parameter estimation, and systems biology.
Researchers: Martin Guay, Tom Harris, Xiang Li, Kim McAuley and Jim McLellan.
Cells: PEM and solid
oxide fuel cells, alternative feeds to fuel cells including conversion of
agricultural or municipal waste, low platinum electrodes, electrokinetics,
control of fuel cell systems and parameter estimation for fuel cell models.
Researchers: Dominik Barz, Kunal Karan and Brant Peppley.
- Microfluidics and Biosensors: Microfluidics and Biosensors, electrokinetics,
pathogen and biomarker detection methods,Raman spectroscopy,
surface plasmon resonance, on-chip cell manipulation and analysis. Researchers:
Dominik Barz, Aris Docoslis and Carlos Escobedo.
Collaborative Biomedical Engineering Program
This collaborative program links the graduate programs in Chemical, Electrical and Mechanical Engineering and provides shared learning experiences with interdisciplinary content, bringing students from a variety of backgrounds together to learn about research methodology and professional practice in the field of Biomedical Engineering. Students are registered in one of the three home departments in a Master’s or Doctoral program and will receive the designation of “specialization in Biomedical Engineering” upon graduation. More information about the program can be found at:
http://www.queensu.ca/sgs/biomedical-engineering and in this calendar: Biomedical Engineering.
Collaborative Graduate Specialization in Computational Science and Engineering
A three-course specialization that teaches you the latest methods for
applying the power of high-performance computing to scientific problems in your
area of study. From advanced numerical analysis, mathematical modelling and
simulation, and parallel programming, these methods support and enhance more
traditional approaches based on theory and experimentation. Completion of
requirements entitles you to a special degree notation on your transcripts.
Applicants for the following programs are accepted under the general regulations of the School of Graduate Studies.
Note that courses of instruction are provided in term length (3.0 credit units) weight) or modular six-week (1.5 credit units) types. Click on Chemical Engineering's Courses of Instruction for details.
MASTER OF APPLIED SCIENCE (M.A.Sc.)
The minimum requirements to be fulfilled are 4 term courses, a department seminar and a thesis. Two graduate courses must be from within the Department of Chemical Engineering, unless otherwise approved by the research supervisor and departmental graduate coordinator. One course may be selected from 400-series courses in other departments. All students must take CHEM-801
*, a non-credit course in laboratory safety, at the first opportunity after their initial registration, and also participate in CHEE-897
, the departmental seminar series. All programs of study must be approved by the department.
MASTER OF ENGINEERING (M.Eng.)
The requirements for this program are 8 term length courses or a combination of term length and modular courses to equal 8 term length courses. At least 4 term length courses must be taken from the department. A maximum of 2 term length 400 series courses may be taken. All programs of study must be approved by the department. With a graduate program focused on research, the current Departmental policy is to admit qualified applicants to the M.Eng. program only under special circumstances, with no financial support being offered by the University or the Department.
|DOCTOR OF PHILOSOPHY (Ph.D.)
Requirements additional to those in the general regulations are as follows. The minimum course requirement for the Ph.D. beyond the B.Sc. is 7 term length courses. Six must be graduate courses. The list of graduate courses taken will be evaluated by the supervisory committee on an ongoing basis and will be reviewed at the time of the oral comprehensive examination. One course may be selected from 400-series undergraduate courses in other departments. All students must take CHEM-801*, a non-credit course in laboratory safety, at the first opportunity after their initial registration, and also participate in CHEE-897, the departmental seminar series.
Ph.D. candidates accepted with a Master's degree must take at least 4 term length courses. The list of graduate courses taken will be evaluated by the supervisory committee on an ongoing basis and will be reviewed at the time of the oral comprehensive examination. One course may be selected from 400-series undergraduate courses in other departments. All programs of study must be approved by the department.