Undergraduate Degree Program in Biomedical Engineering
The Biomedical Engineering Degree Program was approved by the University Board of Governors on January 31, 2012. Approval by the Ministry of Advanced Education is required before the program can be offered. If approved, the Faculty of Engineering will begin offering this program in September 2012.
The Faculty of Engineering is currently working towards offering a new undergraduate major in Biomedical Engineering starting in the fall term of 2012, for an intake at the second year level. The program has not been approved yet. An update will be posted on this web page when/if it is approved. This program will consist of 8 coursework semesters together with mandatory coop. It shares the common first year of other UVic engineering programs. The program has a common BME engineering core for the majority of the 2nd year consisting of a combination of MECH, ELEC and CSC courses along with 2 courses in quantitative physiology. Students will take a least one biomedical engineering related course per term and in the 4th year, students can take a variety of BME and technical electives. Accreditation will be sought from the Canadian Engineering Accreditation Board once the first class has graduated.
Biomedical Engineering Research Cluster
In addition to the undergraduate degree program, a number of professors at the University of Victoria are pursuing research activities in the area of biomedical engineering.
...Click on the Faculty tab below to see a complete listing...
Curriculum
Curriculum for Biomedical Engineering
Similar to other Engineering programs, after the first year the BME academic term will be offered in alternate terms, interleaved with Co-op work terms.
| Academic Year | Term Schedule |
|
Fall Spring Summer |
|
|
1 |
Term 1A Term 1B |
|
2 |
Term 2A Coop Term 2B |
|
3 |
Coop Term 3A Coop |
|
4 |
Term 3B Coop Term 4A |
|
5 |
Coop Term 4B |
Year 1 - Term 1A Fall
|
CSC 111 Fundamentals of Programming I – 1.5 units |
|
ENGR 020 Introduction to Professional Practice – 0 units |
|
ENGR 110 Design and Communication – 2.5 units |
|
MATH 100 Calculus I – 1.5 units |
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MATH 110 Matrix Algebra – 1.5 units |
|
PHYS 122 Mechanics for Engineers – 1.5 units |
Year 1 - Term 1B Spring
|
CHEM 150 Engineering Chemistry – 1.5 units |
|
ENGR 120 Design and Communication II – 2.5 units |
|
ENGR 141 Engineering Fundamentals I – 1.5 units |
|
MATH 101 Calculus II – 1.5 units |
|
PHYS 125 Fundamentals of Physics – 1.5 units |
Year 1 - Summer
Can be used for “Alternate First Year” (academic courses), an early first work term or time off.
Year 2 – Term 2A Fall
|
BME 200 Molecular and Cellular Physiology for Engineers – 1.5 units |
|
CHEM 231 Introduction to Organic Chemistry – 1.5 units |
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ELEC 216 Electricity and Magnetism – 1.5 units |
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MATH 200 Calculus of Several Variables – 1.5 units |
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CSC 115 Fundamentals of Programming II – 1.5 units |
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MECH 240 Thermodynamics – 1.5 units |
Year 2 - Spring
ENGR 001: First work term
Year 2 – Term 2B Summer
|
BME 201 Quantitative Human Physiology – 1.5 units |
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ELEC 250 Linear Circuits I – 1.5 units |
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MATH 201 Introduction to Differential Equations – 1.5 units |
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MECH 220 Mechanics of Solids I - 1.5 units |
|
Choose one pair of: |
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- MECH 242 Dynamics – 1.5 units |
|
- ELEC 260 Continuous Time Signals and Systems – 1.5 units |
Year 3 - Fall
ENGR 002: Second work term
Year 3 – Term 3A Spring
|
BIOC 299 Biochemistry for non-majors - 1.5 units |
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BME 350 Biomedical design course (joint with MECH 350) - 1.5 units |
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MECH 345 Mechanics of Fluids - 1.5 units |
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Choose one of: |
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- ELEC 330 Electronic Circuits I - 1.5 units |
|
- ELEC 365 Applied Electronics - 1.5 units |
|
Choose two of: |
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- ELEC 300 Linear Circuits II - 1.5 units |
|
- ELEC 310 Digital Signal Processing I - 1.5 units |
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- ELEC 320 Electronic Devices I - 1.5 units |
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- ELEC 340 Electromagnetic Field Theory - 1.5 units |
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- MECH 320 Mechanics of Solids II - 1.5 units |
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- MECH 335 Theory of Mechanisms - 1.5 units |
Year 3 – Summer
ENGR 003: Third work term
Year 4 – Term 3B Fall
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ELEC 335 Biosensors and Instrumentation – 1.5 units |
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ENGR 280 Engineering Economics – 1.5 units |
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STAT 260 Introduction to Probability and Statistics – 1.5 units |
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Complementary Studies Elective – 1.5 units |
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Choose one of: |
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- ELEC 360 Control Theory and Systems I - 1.5 units |
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- MECH 380 Automatic Control Engineering (note MECH 330 is a co-requisite) - 1.5 units |
|
Choose one of: |
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- ELEC 350 Communications Theory and Systems I - 1.5 units |
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- ELEC 370 Electromechanical Energy Conversion - 1.5 units |
|
- ELEC 380 Electronic Circuits II - 1.5 units |
|
- MECH 330 Machine Dynamics - 1.5 units |
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- MECH 360 Design of Mechanical Systems - 1.5 units |
|
- MECH 395 Heat Transfer - 1.5 units |
Year 4 – Spring
ENGR 004: Fourth work term
Year 4 – Term 4A Summer
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ENGR 297 Technology and Society - 1.5 units |
|
Choose one of: |
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- MECH 400 or ELEC 499 or SENG 499: Design Project – 1.5 units |
|
6.0 units of Biomedical or technical electives (below) |
Year 5 – Spring
Can be used for a fifth work term or for alternate academic courses
Year 4 – Term 4B Spring
|
ENGR 498 Engineering Law – 1.5 units |
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ENGR 446 Technical Report – 1.0 units |
|
CSC 349A Numerical Analysis – 1.5 units |
|
4.5 units of Biomedical or technical electives (below) |
Biomedical Engineering Electives:
(Choose 2 over Terms 4A and B)
|
ELEC 434 Biophotonics – 1.5 units (Summer) |
|
ELEC 435 Medical Image Processing – 1.5 units (Summer) |
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MECH 450F Mechanics & Energy Conversion in Living Cells – 1.5 units (Summer) |
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PHYS 432 Medical Physics (Fall) - 1.5 units |
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CSC 428 Computational Biology Algorithms (Spring) - 1.5 units |
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MECH 450/BME 401 Biomaterials and Tissue Engineering (Spring) - 1.5 units |
Technical Electives:
(Choose 5 over Terms 4A and B)*
|
CENG 455 Real Time Computer Systems Design Project (Spring) - 1.5 units |
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ELEC 404 Microwaves and Fiber Optics (Summer) - 1.5 units |
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ELEC 412 Electronic Devices II (Spring) - 1.5 units |
|
ELEC 420 Nanotechnology (Spring) - 1.5 units |
|
ELEC 450 Communications Theory and Systems II (Summer) - 1.5 units |
|
ELEC 452 Optical Communication Technology (Summer) - 1.5 units |
|
ELEC 453 Antennas and Propagation (Spring) - 1.5 units |
|
ENGR 466 System on a Chip Engineering for Signal Processing (Summer) - 1.5 units |
|
ELEC 484 Audio Signal Processing (Summer) - 1.5 units |
|
ELEC 485 Pattern Recognition (Spring) - 1.5 units |
|
ELEC 498 Honours Thesis – 3.0 units |
|
MECH 410 Computer Aided Design (Spring) - 1.5 units |
|
MECH 420 Finite Element Applications - 1.5 units |
|
MECH 421 Mechanical Vibrations (Summer) - 1.5 units |
|
MECH 423 Engineering Ceramics - 1.5 units |
|
MECH 430 Robotics (Summer) - 1.5 units |
|
MECH 466 MEMS (Summer) - 1.5 units |
|
MECH 494 Thermofluids and Introduction to Mass Transfer (Summer) - 1.5 units |
|
MECH 495 Computational Fluid Dynamics and Heat Transfer (Spring) - 1.5 units |
|
MECH 458 Mechatronics (Spring) - 1.5 units |
|
MECH 498 Honours Thesis – 3.0 units |
|
MECH 499 Technical Project – 1.5 units |
* One of these electives may be replaced by a 300 level CEng, Elec, Mech, SEng course. Also additional BME electives can be used to replace technical electives from this list.
Faculty
BHILADVALA, Rustom
Ph.D (Yale), Assistant Professor
Dr. Bhiladvala’s nanoresonator research program includes the interdisciplinary development of tools and methods for molecular diagnosis, to enable early detection of diseases such as cancers. His research interests include developing instruments for single-cell interrogation, focused on studying disease progression and rapid drug development. He teaches the senior UG / graduate course “Mechanics and Energy Conversion in Living Cells”. He has served as a grant proposal reviewer for the US NIH/NCI (National Institutes of Health/National Cancer Institutes) and is a member of the American Association for Cancer Research and the Centre for Biomedical Research at the University of Victoria.
BRANZAN-ALBU, Alexandra
Ph.D (Bucharest), P.Eng, Associate Professor
Dr. Branzan Albu's research involves medical image analysis for computer-aided diagnostic and therapy planning. Dr. Branzan Albu has a number of ongoing collaborations on biomedical research projects. She is a Qualified Health Researcher affiliated with the Center on Aging at the University of Victoria. She has recently developed research partnerships with the British Columbia Cancer Agency, and with the Institut de Recherche en Geriatrie at Université de Montreal. Her medical imaging research is published in reputable venues, such as the IEEE Transactions on Biomedical Engineering, the International Symposium on Biomedical Imaging (ISBI), and the International Conference of the IEEE Engineering in Medicine and Biology Society (EMBC). Dr. Branzan Albu has developed a new course in Medical Image Processing (ELEC 435). She has taught this course for the first time in Summer 2011. This course plays an important role in the Biomedical Option offered in the Electrical Engineering program.
CONSTANTINESCU, Daniela
Ph.D (UBC), P.Eng, Assistant Professor
Dr. Constantinescu's research expertise is in the area of haptics. Haptics refers to robotic technologies that enable users to touch and feel computer-generated objects. Her current work focuses on enabling multiple users, connected across a computer network, to touch, feel and manipulate a shared virtual environment together. The goal of this work is to extend the sense of touch across distance similarly to how existing video conferencing technologies extend vision across distance. Applications of this work include home-based and tele-rehabilitation, and virtual reality-based surgical training. In prior research, she investigated the development of virtual constraints for robot-assisted surgical procedures.
DECHEV, Nikolai
Ph.D (Toronto), P.Eng, Associate Professor
Dr. Dechev’s research includes development of a mechatronic hand rehabilitation system employing CPM (continuous passive motion) to aid injury recovery, and advanced lower arm prosthesis design. Additionally, he researches novel methods for the acquisition of bio-signals from the lower arm, including development of: implantable wireless sensors for the measurement of intra-muscular signals (electromyographic data acquisition), and an ultrasound-based sensor system for the non-invasive measurement of internal tendon motion within the wrist. Both projects aim at developing better methods for the control of advanced hand prosthesis. Dr. Dechev also has a research program in developing mechatronic equipment for cell-based research including: instrumentation for the automatic visual analysis and manipulation of cells in-vitro, and magnetic-based chips for the capture and sorting of magnetically tagged cells in-vitro.
DIMOPOULOS, Nikitas
Ph.D (Maryland), P.Eng, Professor
Dr. Dimopoulos' research involves the use of neural networks in the modelling of the biological activity of chemical compounds. Specifically, Dr. Dimopoulos and his team have developed methods that accurately model the Aldose Reductase (AR) Inhibitory Activity of classes of compounds including nitrophenyl derivatives, phenolic derivatives, and pyridazine derivatives. The inhibition of the AR enzyme is considered to be an approach to control diabetic complications, ischemia, abnormal vascular smooth cell proliferation, cancers, and mood disorders.
DONG, Zuomin
Ph.D (New York State), P.Eng, Professor, Chair of Mechanical Engineering
Dr. Dong’s research program includes portable diagnosis device and software for performing on-site assay, assay based analysis and diagnosis.
GEBALI, Fayez
Ph.D (UBC), P.Eng, Professor, Chair of Electrical and Computer Engineering
Dr. Gebali's research involves the algorithms, design and programming of embedded devices, including those used in medical and healthcare applications. This includes a program on assistive technology using cell phones for the visually impaired to access public transit systems and provide warning to nearby vehicles of the presence of a visually-impaired person.
GORDON, Reuven
Ph.D (Cambridge), P.Eng, Associate Professor
Dr. Gordon's research involves the development of optical biosensors for the early detection of cancers and for drug discovery. He has been part of NSERC Strategic Projects involving collaborations with the BC Cancer Agency, Cangene, and he participates in Biopsys (the NSERC Strategic Network for Bioplasmonic Systems). He also has a research program on optical trapping of nanometric particles, with applications to the manipulation of viruses, proteins and other relevant biomaterials.
HERRING, Rodney
Ph.D (Birmingham), P.Eng, Associate Professor
Dr. Herring’s research program includes a medical imaging, diagnosis and treatment device based on acoustic confocal holography.
JUN, Martin
Ph.D (Illinois), P.Eng, Assistant Professor
Dr. Jun’s research program of Advanced Multi-Scale and Point-of-need Manufacturing includes biomedical device manufacturing and scaffold fabrication.
NADLER, Ben
Ph.D (Berkeley), P.Eng, Assistant Professor
Dr. Nadler’s research program includes thermomechanics of biomembranes and biological cells.
OSHKAI, Peter
Ph.D (LeHigh), P.Eng, Associate Professor
Research in Dr. Oshkai’s Fluid Mechanics laboratory includes biomedical devices: fluid dynamics and design aspects of replacement heart valves. They are developing a realistic simulation of a human hear capable of reproducing the hydrodynamic characteristics of the blood flow through diseased ventricles and valves
SO, Poman
Ph.D (Victoria), P.Eng, Associate Professor, Senior Member IEEE, Member ACES and CMBES, (ACES: Applied Computational Electromagnetics Society), (CMBES: Canadian Medical and Biological Engineering Society)
Dr. So’s research and industrial experience is in applied computational electromagnetics and object-oriented software engineering. He is a co-founder of the Faustus Scientific Corporation (Victoria, BC) and is the creator of the company’s MEFiSTo line of electromagnetic/bioelectromagnetic modeling software. Dr. So’s research includes microwave engineering, computer aided design and modeling of electromagnetic structures, computer simulation of bioelectromagnetic behaviors, and heterogeneous computing algorithms and software for electromagnetics/bioelectromagnetics applications. Since early 2009, Dr. So has been collaborating with the biomedical engineering department at VIHA in developing electronic stethoscopes for e-health and telemedicine.
STOREY, Margaret-Anne
Ph.D (Simon Fraser), Professor
Dr. Storey is a professor of computer science at the University of Victoria and a Canada Research Chair in Human Computer Interaction for Software Engineering. She has research expertise in computer supported cooperative work, human computer interaction, social media and information visualization. She applies this expertise to the development of collaborative technologies for authoring and leveraging biomedical ontologies and classifications. She is a principal investigator for the National Center for Biomedical Ontology, US and is a member of the committee responsible for developing the next version of the International Classification of Diseases with the World Health Organization.
SULEMAN, Afzal
Ph.D (UBC), P.Eng, Professor
Dr. Suleman’s research program includes fluid - structure interaction of heart valves and disease.
WEBER, Jens
Ph.D (Padeborn), P.Eng, Professor
Dr. Weber conducts research on engineering of biomedical software systems, in particular clinical information systems. His main interest is in formal and systematic methods for improving the safety, security and interoperability of biomedical software. He was a visiting professor at the UBC Faculty of Medicine (Family Practice) and is an adjunct professor in the UVic School of Health Information Science. He has published extensively in premier venues in the area of health informatics, including JAMIA, AMIA and ACM SIGHIT.
WEGNER, Joanne
Ph.D (Alberta), P.Eng, Professor
Dr. Wegner’s research includes the application of electrorestrictive polymers to prosthetics and artificial muscles.
WILD, Peter
Ph.D (UVic), P.Eng, Professor
Dr. Wild's research is focused on the development of fibre optic sensors to measure hydrostatic pressures in intervertebral discs, the esophagus and coronary arteries as well as sensors to measure contact stress in articular joints. His research has been supported primarily through NSERC Idea to Innovation grants and has been undertaken in collaboration with researchers and physicians in the Departments of Orthopaedics and Cardiology at the University of British Columbia.
WILLERTH, Stephanie
Ph.D (Washington) Assistant Professor
Dr. Willerth's research focuses on engineering tissues by combining biomaterial scaffolds with stem cells. One of her main areas of focus is neural tissue engineering and she belongs to the International Collaboration on Repair Discoveries (iCORD) - a BC based organization dedicated to finding potential treatments for spinal cord injury. She also has an on-going collaboration in the area of bone tissue engineering. She has published 10 peer reviewed research articles in this field and 3 book chapters on the topic of using stem cells for tissue engineering applications.
Faculty of Engineering
recruitment brochure
Engineering Bridge
January 2012
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Faculty of Engineering
2011 Orientation
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