University of Toronto
Faculty of Applied Science and Engineering
Calendar 2000 - 2001

Chemical Engineering
(Click here for the official web site of chemical engineering)

(Offered by the Department of Chemical Engineering and Applied Chemistry.
Click here for a listing of Academic Staff in the Department)
 
Undergraduate Program in Chemical Engineering (AECHEBASC)
  • General Program in Chemical Engineering

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  • AECHEBASCE - Collaborative Environmental Option in Chemical Engineering

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  • Graduate Programs in Chemical Engineering

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  • Professional Experience Year
  • Back to Curriculum and Programs
     
     

    Undergraduate Program in Chemical Engineering (AECHEBASC)

    UNDERGRADUATE STUDENT COUNSELLOR
    Ms. Sheila Rawlings
    Room 216A, Wallberg Building
    Tel: (416) 978-5336

    Chemical Engineering is that primary engineering discipline based on the fundamental sciences of chemistry, physics, biochemistry and mathematics, in which processes are conceived, designed and operated to affect compositional changes in materials of all kinds. 

    The skills of the chemical engineer are necessary to the development of advanced materials, such as high strength and reinforced plastics, the application of modern theories of surfaces and interfaces to development of biomaterials, membrane separations, and food products, and the application of high energy sources, such as lasers and microwave plasmas in the production of semiconductors and modern electronic circuitry. 

    These applications of modern technology to the solution of problems in the evolution of high technology complement the more traditional role of the chemical engineer in the use of and conservation of natural resources, energy conversion, and environmental control. Chemical engineers also play an important role in the development of a healthier environment and safer and healthier industrial workplaces. They are primarily responsible for improvements in the technology of evaluating and controlling hazards. 

    In addition to the basic sciences, chemical engineers use a well-defined body of knowledge in the application of the conservation laws, which determine mass flow and energy relations; thermodynamics and kinetics, which determine what reactions are feasible and the rate at which they occur; and the chemical engineering rate laws, which determine limits to the transfer of heat, mass and momentum.

    A strong background in applied chemistry furnishes the chemical engineer with the knowledge to participate in the broadest range of engineering activities, and indeed to pursue other professional careers in management, medicine, law, teaching and government.

    Students in First Year are taught in common with students in other branches of engineering, although they take one subject in the Winter Session related to chemical engineering. They may also select a Humanities/Social Science Elective in one of the terms. After completing their first year, students have the option of either staying in the general Chemical Engineering Program or taking the Collaborative Environmental Option. Both of these programs, described below, involve the same fundamental chemical engineering courses and will graduate well qualified chemical engineers.

    Second and Third Year material in the general program is unique to chemical engineering and applied chemistry. There is a strong emphasis on physical and organic chemistry, application of mathematics, fluid mechanics, heat transfer, process control and the major separation processes. Instruction in important aspects of economic analysis is also included. In Second Year, the inclusion of Humanities/Social Science electives in the general program provides some flexibility in the selection of courses.

    In Fourth Year, students in the general program select several elective courses that suit their individual interests. In the fall session every student participates in the design of a chemical plant, and every student is required to undertake an individual full year research project. This project, the culmination of which is a thesis, serves in many cases as an introduction to research, and while its nature may vary widely, it provides an opportunity to apply the principles developed during the first three years of the program to problems of engineering interest. Those students who intend to pursue postgraduate studies may, with Departmental approval, enter the Coordinated Bachelor/Master?s Program by enrolment in the appropriate thesis course. A thesis project may, for example, concern an experimental laboratory investigation, the design of a process, or a computer study of a complex chemical system. The Technical Elective subjects available in the Fourth Year cover a wide range of fundamental and application areas of chemical engineering and applied chemistry. 

    The Collaborative Environmental Option in Chemical Engineering is designed for those students who wish to have an enhanced study in the environmental area. Students selecting this option will take the same fundamental courses as the students in the general program and the same number of courses in total. In years 2 and 3 they will take several environmental courses (about one per term) together with students enrolled in the Collaborative Environmental Options in Civil and Mechanical Engineering. In fourth year, students in the option will participate in an environmental engineering project with a team of students, undertake a full year research thesis and can select technical electives in the environmental area. For more information, please see the section of the calendar on the Environmental Engineering Collaborative Program.

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    Second Year Chemical Engineering (General Program)
     
    Fall Session - Year 2   Lect. Lab. Tut. Wt.
    Applied Chemistry I - Inorganic Chemistry CHE200H1 F 3 6 2 0.63
    Applied Chemistry II - Organic Chemistry CHE203H1 F 3 -- 1 0.46
    Fluid Mechanics CHE211H1 F 3 -- 2 0.46
    Calculus and Numerical Methods CHE221H1 F 3 2 2 0.54
    Communications CHE298H1 F -- -- 2 0.25
    Complementary Studies/Social Science Elective         0.50
               
    Winter Session - Year 2          
    Applied Chemistry III - Organic Chemistry CHE207H1 S 3 6 -- 0.63
    Heat Transfer CHE212H1 S 3 -- 2 0.46
    Applied Differential Equations CHE222H1 S 3 -- 2 0.54
    Thermodynamics I CHE231H1 S 3 3 2 0.54
    Complementary Studies/Social Science Electvie         0.50
    Practical Experience Requirement *          

    * As described in the description of the practical experience requirements, students are required to have completed a total of 600 hours of acceptable practical experience before graduation (normally during their summer vacation periods).

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    Third Year Chemical Engineering (General Program)
     
     Fall Session - Year 3   Lect. Lab. Tut. Wt.
    Mass Transfer Fundamentals CHE 312H1F 3 3 2 0.58
    Thermodynamics II CHE 331H1F 3 6 2 0.75
    Reaction Kinetics CHE 332H1F 3 -- 2 0.54
    Statistics CHE 321H1F 3 -- 2 0.54
               
    Winter Session - Year 3          
    Separation Processes CHE 311H1S 3 4 2 0.67
    Process Dynamics and Control CHE 322H1S 3 1 2 0.54
    Chemical Reaction Engineering CHE 333H1S 3 -- 2 0.50
    Engineering Materials CHE 341H1S 2 -- 1 0.38
    Engineering Economic Analysis CHE 349H1S 3 -- 1 0.50

    All students enrolled within this Program are eligible to apply for admission into the Skoll Program. Details are provided on page 24. Students accepted into the Skoll Program are required to consult with their Undergraduate Student Counsellor on the composition of the 4F courses that will be required.

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    Fourth Year Chemical Engineering (General Program)
     
    Fall Session - Year 4   Lect. Lab. Tut. Wt.
    Plant Design CHE 430H1 F 1.5 -- 6 0.75
    Thesis CHE 489Y1Y or
    CHE 499Y1Y

    --

    3

    1

    0.50
    Technical Elective 0.50
    Technical Elective         0.50
    Complementary Studies/Free Elective         0.50
    Or          
    Plant Design CHE 430H1 F 0.75
    Technical Elective 0.50
    Technical Elective 0.50
    Technical Elective 0.50
    Complementary Studies/Free Elective 0.50
    Winter Session - Year 4          
    Thesis CHE 489Y1Y or
    CHE 499Y1Y

    1

    12

    --

    1.00
    Technical Elective       0.50
    Technical Elective         0.50
    Complementary Studies/Free Elective         0.50
    Or
    Thesis CHE 499H1 S 0.50
    Technical Elective 0.50
    Technical Elective 0.50
    Technical Elective 0.50
    Complementary Studies/Free Elective 0.50

    Technical Electives

    Students are required to select their three technical electives out of the Fundamentals group and the Applications group. At least one of the technical electives must be chosen from the Fundamentals group. Students may take their free and technical electives in any order between the two terms.

    Fundamentals
     
    CHE 410H1 S Advanced Separation Processes
    CHE 411H1 S Fluid Particle Systems
    CHE 412H1 F Advanced Reactor Design
    CHE 507H1 S Process Modelling and Simulation
    CHE 553H1 F Electrochemistry

    Applications
     
    CHE 461H1 F Chemical Properties of Polymers
    CHE 462H1 S Food Engineering
    CHE 463H1 F Polymer Science & Engineering
    CHE 564H1 S Pulp & Paper Processes
    CHE 466H1 F Bioprocess Engineering
    CHE 467H1 F Environmental Engineering
    CHE 468H1 F Nuclear Engineering
    CHE 470H1 S Special Topics in Chemical Engineering
    MMS 420H1 F Biomaterials

    General
     
    CHE457H1 S Innovation and Entrepreneurship for Engineers

    Students wishing to develop an understanding of technologies of importance in a particular industrial sector, such as chemical process metallurgy, may do so by choosing appropriate courses from a selection of technical and free electives and carrying out a suitable thesis project. The thesis project may be supervised by a member of another Department and the electives may also be among those listed by other programs.

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    AECHEBASCE - COLLABORATIVE ENVIRONMENTAL OPTION IN CHEMICAL ENGINEERING

    Second Year Collaborative Environmental Option
     
    Fall Session - Year 2   Lect. Lab. Tut. Wt.
    Applied Chemistry I - Inorganic Chemistry CHE200H1 F 3 6 2 0.63
    Applied Chemistry II - Organic Chemistry CHE203H1 F 3 -- 1 0.46
    Fluid Mechanics CHE211H1 F 3 -- 2 0.46
    Calculus and Numerical Methods CHE221H1 F 3 2 2 0.54
    Communications CHE298H1 F -- -- 2 0.25
    Engineering Ecology EDV220H1 F 2 -- 1 0.38
               
    Winter Session - Year 2          
    Heat Transfer CHE212H1 S 3 -- 2 0.46
    Thermodynamics I CHE231H1 S 3 3 2 0.54
    Applied Differential Equations CHE222H1 S 3 -- 2 0.54
    Environmental Chemistry EDC230H1 S 3 3 -- 0.50
    Hydraulics and Hydrology EDV250H1 S 3 1.5 1 0.42
    Practical Experience Requirement *          

    * As described in the description of the practical experience requirements, students are required to have completed a total of 600 hours of acceptable practical experience before graduation (normally during their summer vacation periods).

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    Third Year Collaborative Environmental Option
     
    Fall Sesion - Year 3   Lect. Lab. Tut. Wt.
    Mass Transfer Fundamentals CHE312H1 F 3 3 2 0.58
    Thermodynamics II CHE331H1 F 3 6 2 0.78
    Reaction Kinetics CHE332H1 F 3 -- 2 0.54
    Statistics CHE321H1 F 3 -- 2 0.54
           
    Winter Session - Year 3          
    Separation Processes CHE311H1 S 3 4 2 0.67
    Process Dynamics and Control CHE322H1 S 3 1 2 0.54
    Chemical Reaction Engineering CHE333H1 S 3 -- 2 0.50
    Preventive Engineering and Social Development EDM304H1 S 3 -- 1 0.50
    Engineering Economic Analysis CHE 49H1 S 3 -- 1 0.50

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    Fourth Year Collaborative Environmental Option
     
    Fall Session - Year 4   Lect. Lab. Tut. Wt.
    Thesis CHE489Y1Y or
    CHE499Y1Y

    --

    3

    1

    0.50
    Environmental Engineering Design Project EDC 430H1 F 1.5 -- 6 0.75
    Environmental Impact and Risk Assessment EDV 360H1 F 2 -- 1 0.38
    Environmental Technical Elective *         0.50
    Technical Elective         0.50
    Or          
    Environmental Engineering Design Project EDC 430H1 F 1.5 -- 6 0.75
    Technical Elective 0.50
    Technical Elective 0.50
    Environmental Impact and Risk Assessment EDV 360H1 F 0.38
    Environmental Technical Elective  0.50
    Winter Session - Year 4          
    Thesis CHE 489Y1Y or
    CHE 499Y1Y

    1

    12

    --

    1.00
    Technical Elective         0.50
    Environmental Technical Elective or Technical Elective         0.50
    Complementary Studies/Social Science 0.50
    Or
    Thesis CHE 499H1 S 0.50
    Technical Elective 0.50
    Environmental Technical Elective or Technical Elective 0.50
    Complementary Studies/Social Science 0.50
    Complementary Studies/free Science 0.50

    * Students are required to select their Environmental Technical Electives from a list of courses approved by the Division of Environmental Engineering (see section on the Environmental Engineering Collaborative Program). Students may take their technical and environmental technical electives in any order between terms.

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    Graduate Programs in Chemical Engineering

    The Department of Chemical Engineering and Applied Chemistry, which also houses studies in nuclear engineering, provides exciting opportunities for students who would like to pursue advanced studies beyond the undergraduate level toward the M.Eng., M.A.Sc. or Ph.D. degrees. More than 50 graduate level courses toward the study requirement of the degree programs are offered by the Department.

    Graduate student research is conducted mostly in the Wallberg Building, which also houses the undergraduate laboratories and lecture rooms. A broad range of modern facilities and equipment is available for experimental research.

    Financial support is provided to graduate students through research grants and/or fellowships, together with some undergraduate teaching in the laboratories.

    Undergraduate students interested in postgraduate programs are invited to discuss research activities and graduate studies in the Department with any member of staff at any stage of their undergraduate program. Further information may also be obtained from the Coordinator of Graduate Studies of the Department in Room 240, Wallberg Building and from the Calendar of the School of Graduate Studies.

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