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

10. Centres and Institutes
 
 
 
Institute of Biomaterials and Biomedical Engineering

Centre for Chemical Process Metallurgy (C-CPM)

Energenius Centre for Advanced Nanotechnology

Joint Program in Transportation

The Centre for Management of Technology and Entrepreneurship

Nortel Institute for Telecommunciations

Pulp and Paper Centre

Centre for Technology and Social Development

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In addition to the departments and divisions described in Section 6, the other main elements of the Faculty of Applied Science and Engineering are the centres, which play an important role in education and research. These are described below. 
 
 

Institute of Biomaterials and Biomedical Engineering
(Click here for the official web site of the Institute of Biomaterials and Biomedical Engineering)
Director: M.V. Sefton
Biomedical engineering is a multidisciplinary field that integrates engineering and biology/medicine. It uses methods , principles, and tools of engineering, physical sciences, and mathematics to solve problems in the medical and life sciences.

Through its faculty, staff and students, and through close collaboration with the faculty of related departments, hospitals and other institutions, the Institute serves as the centre for the Collaborative Graduate Program in Biomedical Engineering at the University of Toronto. It educates undergraduate-level engineering science students in the biomedical engineering option and graduate-level engineering, dentistry, and medical sciences personnel to meet societal needs. It also participates in the education of undergraduate students with interests in biomedical engineering through other departments.

The Institute’s faculty comprises researchers with backgrounds in engineering, dentistry, medical and biological sciences. Augmenting this faculty are part-time members, many of whom act as supervisors of students at the Institute. Students at the Institute are registered in the Institute or in collaborating graduate departments and proceed towards M.Eng., M.A.Sc., M.Sc., M.H.Sc., or Ph.D. degrees in dentistry or the physical or life sciences.

Since 1984, the Faculty has offered a two-year professional degree program for specialized training in Clinical Engineering. The graduates from this program normally find employment in health-care institutions or in the medical devices industry.

Since 1993, the Faculty has offered an undergraduate biomedical engineering option in the Engineering Science Division. This option consists of two streams, electrical and chemical. The graduates from this program can find employment in industry as engineers, or they can proceed to graduate studies.

An active summer student program offers both employment and a structured educational experience for some twenty students each year.

The Institute’s laboratories are principally located in the Rosebrugh Building, the Mining Building, the Wallberg Building, and the Medical Sciences Building on the St. George Campus. These laboratories serve as centres for development of experimental and clinical techniques and instrumentation; real-time and interactive computer applications; innovative biomaterials; functional replacements for biological tissues; and simulations for electrochemical and physiological models. Since many members of the Institute hold appointments in the nearby teaching hospitals and medical research centres, a significant amount of research is carried out in these hospitals and centres.
 

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Centre for Chemical Process Metallurgy (C-CPM)
Director: Dr. Carlos Diaz
Chemical Process Metallurgy plays an important role in the generating and maintaining a high standard of living for our and for future generations.

Metals are vital to sustaining a modern economy. Without them, our lifestyle would be quite different. Transportation would move at a snail’s pace, and rapid communication would be non-existent. It would be impossible to feed and house the world’s population.

The recovery of metals from their ores is energy intensive and has the potential of causing environmental problems. Canada is a major producer of metals. To be able to meet modern day requirements, existing processes have to be modified and new process developed that are energy efficient and environmentally friendly. To achieve this, highly trained engineers and scientists are needed by industry and academia.

To assist the universities in meeting this challenge, the Centre for Chemical Process Metallurgy was founded in 1988. It assists the universities in attracting, training and developing the required supply of well qualified engineers and scientists. It also strengthen the links between industry and universities.

The C-CPM sponsors and co-ordinates research activities relating to chemical process metallurgy. 
Its activities span mineral processing, hydrometallurgy, pyrometallurgy, process modelling and environmental projects.

The Centre has co-funded more than 35 research projects in support of Canada’s mineral industry. Matching funds for these projects have been obtained from NSERC, URIF, and DSS with support from CANMET.

The industrial members are INCO Ltd., Falconbridge Ltd., Hatch Associates Ltd., Western Mining and Ontario Hydro Technologies and Narco.

Universities participating in the Centre are: University of Toronto (Department of Metallurgy and Materials Science, Department of Chemical Engineering and Applied Chemistry); McMaster University (Department of Materials Science and Engineering and Department of Chemical Engineering); Queen’s University (Department of Mining); Waterloo University (Department of Chemical Engineering); Laurentian University (School of Engineering); Brock University and the University of Guelph.

Affiliated laboratories are CANMET and ORTECH.
 

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Energenius Centre for Advanced Nanotechnology
(Click here for the official web site of the Energenius Centre for Advanced Nanotechnology)
Director: Harry E. Ruda
Nanotechnology is a multidisciplinary field (or set of technologies) for designing, fabricating, and applying nanometer-scale materials, structures and devices. In general, nanotechnology may involve such engineering disciplines as materials science, electrical, computer and mechanical engineering, as well as chemistry, physics, mathematics, and biotechnology. Specifically, in semiconductor applications, nanotechnology refers to the technology for fabricating electronic and photonic devices with feature sizes ranging from a few nanometers to the sub-micron range, and these fields are commonly termed nanoelectronics and nanophotonics, respectively. In addition, nanotechnology currently is also used to refer to the rapidly developing area of nano-electro-mechanical systems (NEMS) which have only just began to show their promise for fields such as sensing, biotechnology, integrated opto-electronic and fiber assemblies.

The Energenius Centre for Advanced Nanotechnology (ECAN) is based on a multidisciplinary team of faculty and researchers from various departments including both applied science and engineering, arts and sciences, and mathematics and applied mathematics. ECAN is Canada’s first centre for nanotechnology research and is closely tied to industry and other key research institutions in nanotechnology throughout the world. The main objectives of the centre, which was established in 1997, include (i) advances in research on both theoretical and experimental methods for a new generation of nanoelectronic and nanophotonic materials, structures and devices, (ii) education and training of a new generation of highly qualified personnel for both industry and academia, (iii) collaboration with other members of the academic and industrial community, and (iv) establishing specialized resources and expertise for the scientific community and government in this expanding field of the science and technology. 

The main offices of ECAN are currently located in the Haultain building. Major efforts in the centre are directed at both theoretical and experimental aspects of nanotechnology, related to applications in nanoelectronics, nanophotonics, and NEMS research. The centre houses a unique nanofabrication cluster system featuring an ultra-high vacuum Scanning Tunnelling Microscope combined with a molecular beam epitaxy system, with processing and analysis systems integrated in this ultrahigh vacuum integrated facility. These fabrication techniques are augmented with a variety of various state of the art characterization techniques. The establishment of ECAN enhances both the important collaborative efforts between the University of Toronto and industry and Canada’s participation in one of today’s most pivotal emerging technologies.
 

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Joint Program in Transportation
(Click here for the official web site of the Joint Program in Transportation)
Director: Eric Miller
Established in 1970 as a cooperative research centre with York University, the Joint Program in Transportation was recognized in 1990 as an engineering research centre exclusively at the University of Toronto.

The Joint Program's objectives have remained since its beginning:

  • to encourage research relevant to improving transportation in Canada through the influence of research findings on investment planning, policy development, operations and the development of human resources and expertise
  • to serve government and the transportation industry by acting as a source of information, expertise and special purpose training programs
  • to provide an environment within the university community that is conducive to high quality teaching and research in the transportation field
  • to assist the university in coordinating and promoting teaching programs in the transportation field
Currently, the primary source of funding is related to an information processing and technical support program for the major urban transportation planning agencies in the Toronto region: Ontario Ministry of Transportation, the Regional Governments of Durham, Halton, Hamilton-Wentworth, Peel, Toronto and York, GO Transit and the Toronto Transit Commission.

The research group dedicated to this initiative, called the Data Management Group, is assisted by a steering committee and a technical committee made up of members of funding agencies.

The program has introduced the concept of sharing transportation planning procedures among the public and private agencies. This has been made possible by the development of an independent computer system at the University with modem access by outside agencies. Every major transportation planning agency in the area participates in this shared resource.

Major activities of the Data Management Group include designing and conducting comprehensive household travel surveys (in 1986, 1991 and 1996, with the next survey currently being planned for 2001), maintaining the survey datasets within a relational database management system, providing transportation network computer modelling capabilities to regional planners and researchers, and providing technical support for travel demand modelling activities of the supporting agencies.

These applied research activities help to provide more effective management of increasingly limited resources devoted to transportation in all urban areas, including the Greater Toronto area. Advances made through the Joint Program's efforts will undoubtedly have impact reaching beyond the local community.

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The Centre for Management of Technology and Entrepreneurship
(Click here for the official web site of the Centre for Management of Technology and Entrepreneurship)
Director: J.C. Paradi
We hear a lot of rhetoric about the effects of technological change on the environment, jobs, educational needs, global competitiveness and society in general. We are convinced that in managing the many effects of technology a great deal of entrepreneurial and innovative activity will have to take place, thus the “E” for entrepreneurship in our name.

Technological Change is the greatest challenge faced by management today. The most glaring effects of this change is felt everywhere in the manufacturing industries. Less visible, but just as effective, has been the change in the “Tradable Services” sector’s business practices. It is fair to say that there are no “safe” areas of business, government or institutions from the effects of technological change. Hence, management, especially technical management (engineers, scientists, information technology people) must learn quickly how to make use of, rather than being used by, technology.

The Centre’s focus is on the Financial Services Industry. This robust services sector is one of the fundamental strengths of the Canadian economic fabric. Members of this industry rely almost completely on the effective use of Information Technology, including a wide variety of computer and communications systems. Among the latter is e-Commerce a growing and ever challenging field. FSI firms are undergoing tremendous change at the present and this trend will continue well into the next millennium.

To meet global competition, this industry needs to conduct research into what technology they will require to differentiate themselves from their competition in their customers’ eyes and to ensure that continuous improvements in productivity are realised. Funding comes from the FSI community which has now recognised the need and the potential benefits of research activity in this area. But, just as important, these major firms provide their operations as “laboratories” for the work carried out by the Centre.

The Centre is multidisciplinary in nature and we collaborate with other units in the University of Toronto and similar institutions in Canada and abroad. For instance, the Faculty of Management and the Centre for International Studies are partners in our work. In this way, we have access to all pertinent information and can collaborate with Principal Investigators in each of these disciplines.

The Faculty of Applied Science and Engineering has pioneered the institution of a teaching and research program in Management of Technology, Innovation, and Intra/Entrepreneurship. As the 1990s arrived, the time was appropriate to initiate a formal research program and course curriculum development in this discipline. The initiative was started in 1991 and has already resulted in research projects in the following areas:

  • e-Commerce initiatives on several levels
  • The impact of technological change on the FSI
  • Economics of technology and international impacts
  • Measurement of productivity, efficiency and effectiveness utilising Data Envelopment Analysis
  • Intra/Entrepreneurial development of students bot at undergraduate and graduate levels

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One of the tangible results of the Centre's activities is the availability of well trained people for the FSI and potentially new teachers in the discipline. All the research projects involve our industrial sponsors, the work is "practical" in nature and leads to direct benefits to the industry.

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Nortel Institute for Telecommunications
(Click here for the official web site of the Nortel Institute for Telecommunications)
Director: Prof. Petr W. E. Smith
Mission
To provide a Canadian, university-based global leadership in advanced information technology and telecommunications research, innovation, education and training.

Strategy
To launch itself beyond the confines of conventional structures and disciplines to a position to set and lead future trends.

Goals

  • To create a thriving environment and support base to attract and retain the best faculty, researchers and students; 
  • To provide national and global leadership in innovative thinking, strategic direction and future policy and standards implications of information technology and telecommunications; 
  • To support world-class education and training for the information technology and telecommunications sector; 
  • To accelerate the advance and convergence of information technologies through the promotion, facilitation and conduct of intensely collaborative research and development.
  • To identify and assess technology trends to guide and inform future research and development, education and policy-making.


Current research thrusts

  • Emerging technologies / Device prototyping: plastic optoelectronics, nanoelectronics, integrated optoelectronics.
  • Network architecture and management: next-generation network architecture, platform-independent web access technologies, network management.
  • Wireless: mobile communications technologies, microwave monolithic integrated circuits, wireless technology testbed, radio architecture. 
  • RF/Satellite: Millimetre wave systems, planar antennas, antenna arrays, novel electromagnetic materials.
Nortel Institute Open Research Facility
The Institute is developing a large, open, integrated laboratory facility to support information technology and telecommunications research and training. It will be first of its kind and the largest in Canadian universities. This facility, with its specialized advanced equipment, will:
  • Provide unique capacities for innovation in four initial strategic research thrusts of emerging technologies / device phototyping, network architecture and management, wireless and RF/satellite;
  • Create a new and substantial research capacity for university-based Canadian telecommunications research;
  • Provide researchers from Canadian industries and institutions access to advanced equipment for research leading to innovations in the field;
  • Train new generations of highly qualified personnel as industrial and academic researchers to continue the pursuit of innovation in telecommunications.
  • The Open Research Facility - a resource unique in the world - will be a key central support to the Institute’s mission.
Strategic analysis
The Nortel Institute is ideally positioned to serve as a national and international focal point for strategic analysis of technology trends. Drawing on the intellectual resources of academia, industry and government, the Institute will facilitate and promote creative collaborations to identify and assess developments, anticipate their direction and impact, and produce independent, multi-perspective resources for advising planners and policy-makers.

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Pulp and Paper Centre
(Click here for the official web site of the Pulp and Paper Centre)
Director: D.W. Reeve
Paper is critical to our civilization. It is a truly strategic material produced from a renewable resource. Paper has been of paramount importance in the transmission and storage of information necessary to science and literature and, indeed, has enabled the creation of modern business and industry. Even in the telematic world, paper is essential in partnership with electronic information systems. Wood pulp is raw material not only for paper, but for thousands of structural, absorbent and packaging products so completely a part of our lives that we often overlook them. 

Canada is one of the largest suppliers of pulp and newsprint and has a long tradition of scientific and technological leadership. These make it a major force in the pulp and paper world. 

The Pulp & Paper Centre is an opportunity for the creation of new science and technology to benefit the Canadian economy and for winning the hearts and minds of students and faculty to do the job in collaboration with industry and government. 

Since it was founded in 1987, the Pulp & Paper Centre has experienced exceptional expansion in student and faculty involvement and research support. In 1999, there were 50 students, 65 faculty and 12 associated staff from several departments within and outside U of T, and five operating industrial research consortia. Thirty-five companies from six countries provided financial support to research projects in pulp and paper processing, energy recovery systems and environmental research. The Centre has extensive student involvement at the graduate and undergraduate levels and continues to actively enrich the student’s educational experience through interesting and relevant research projects, seminar programs, professional development programs, and international exchanges and tours.
 

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Centre for Technology and Social Development
Director: W.H. Vanderburg
The relationship between technology and society continues to undergo profound changes, and this will have a significant influence on engineering. This is evident when we consider issues such as the need for: a genuine and sustainable development; a more liveable urban environment; a basic technological literacy over and above traditional literacy; an effective integration of technology into the infrastructure and social organization of society; an international economic order capable of contributing to genuine development, particularly in the Third World; and a healthy social and natural ecology. 

Many engineering graduates will encounter these and other issues related to modern technologies since studies show that they rapidly move into supervisory, administrative and managerial positions, requiring a wider perspective. At the same time, engineering practice for dealing with the social and environmental implications of technology is changing. Rather than being dealt with in an “end-of-pipe” manner, the consideration of such implications is incorporated into engineering design and decision-making from the beginning in order to prevent harm as much as possible. Examples include: pollution prevention, industrial ecology, design for the entire life-cycle, design for environment, design for disassembly, green product design, total environmental management, energy end-use planning strategies, integrated resource planning, healthy work organization and workplace design, and healthy/sustainable city concepts.

The principal thrust of the research at the Centre is to establish a theoretical foundation and framework to support the further development and application of these preventive approaches. The economy of technology , preoccupied with gaining the maximum possible outputs from the inputs of materials, energy, labour and capital must be complemented by the ecology of technology, which ensures that such gains are not made at the expense of the human, societal and environmental contexts.

The objectives of the Centre are:

  • to provide a focal point for the creators and doers of technology to examine critically and reflect upon the social influences of that technology
  • to contribute to the integration of complementary studies into the engineering curriculum
  • to collaborate with other sectors of the University and the community to develop a better understanding of the role modern technology plays in society
Specific activities include courses at the undergraduate and graduate levels, an elective sequence leading to a Certificate in Preventive Engineering and Social Development, research guides to support undergraduate and graduate theses, research efforts undertaken in collaboration with other departments, seminars and informal discussions.

The Centre is located in the Rosebrugh Building, Room 210C. Office hours are 10:00 a.m. to 1:30 p.m.

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