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overview
This program prepares individuals who are interested in technology and health sciences to enter a challenging career in biomedical engineering. The program produces biomedical engineering technologists with the ability to participate in the development and application of technology in medicine and biology. The curriculum provides practical hands-on understanding in the fundamental principles, operations and design of medical diagnostic and therapeutic devices (e.g.: heart monitors, cardiac defibrillators, clinical laboratory analysers and x-ray equipment). Medical device-related standards and protocols, research and design methodologies, technology life-cycle management strategies, safe clinical practices, problem-solving skills, performance assurance-testing procedures, and troubleshooting techniques are all studied in this program.
The Program
Graduates from the Biomedical Engineering Technology program receive a Diploma of Technology in Biomedical Engineering Technology. The program provides education and training in the following subject areas: technical communication, algebra, calculus, statistics, basic bio- and analytical chemistry, human anatomy and physiology, biophysics, electricity and electronics, digital techniques and microprocessor applications, biomedical devices and systems, medical equipment-related standards and quality assurance protocols. During the second year, each student spends five weeks in supervised training in a local hospital, research agency, or equipment supply company. Graduates work closely with biomedical engineers and technologists, physicians, and others who use, manage, maintain, design, manufacture, and supply scientific and medical equipment.
The program provides hands-on laboratory experience throughout, and trains students in engineering problem-solving methodology to allow them to upgrade and maintain their knowledge.
BCIT recommends membership in the Canadian Medical and Biological Engineering Society (CMBES) and the Applied Science Technologists and Technicians of British Columbia (ASTTBC).
program entry
Most courses taken within the program require successful completion of certain prerequisites. For further information contact BCIT Student Information and Enrolment Services at 604-434-1610 or toll-free at 1-866-434-1610 (Canada and United States only).
Entrance requirements
- High school graduation
- English 12 (C+) or English-language proficiency
- Physics 11 (B)
- Chemistry 11 (B)
- One of the following math requirements:
- Principles of Math 12 (B) or Academic Math 12 (B) or equivalent
- Pre-Calculus 12 (B)
Note: Foundations of Math 12 is not acceptable
Check for acceptable equivalent courses taught in BC high schools.
These entrance requirements should have been completed during the past five years. If more than five years have elapsed, BCIT requires individual assessment.
Consideration is on an individual basis of applicants with relevant practical experience or special background.
Additional Requirements
- A possible interview. Due to the limited number of seats and the large number of applicants, the program accepts only the most suitable applicants.
- Attendance at an information session organized by the program, and completion of an immunization form prior to final acceptance into the program.
- Strongly recommended basic computer skills in Windows operating systems, and creating documents and worksheets in word processing and spreadsheet programs such as MS Word and Excel.
- Complete the following form and submit with your application:
Provisional Acceptance
If you have been provisionally accepted to BCIT you will be notified in writing and you will be required to submit the following documents in order to be fully accepted into the program:
Submit this form to Student Health Services:
Once these and any other outstanding provisions have been met, you will receive written notification of your full acceptance. Re-admission Requirements
- Make application for re-admission to the Admissions department, and pay a $60
application fee. We recommend that the re-admission application be made at least one
term in advance of the anticipated re-admission date.
- We do not ordinarily re-admit applicants who have failed a term or any course more
than once, or have failed more than one term in the program.
- Students may be required to repeat and to successfully complete courses that have
undergone significant change, or courses that were taken more than three years previously.
This may include courses where transfer credits were previously granted.
- Only students who are working to clear previous failures have the opportunity to study on a part-time basis with daytime classes in the Biomedical Engineering Technology program.
- Re-admission is conditional upon the applicant's successful implementation of a plan
resolving previous academic difficulties. The applicant is responsible for submitting such
a plan in writing to the program head at the time of application, and to carry out the
plan to the satisfaction of the program. Allow sufficient time between submission and
the start of the term to enable satisfactory implementation of the plan. (See also
Item 1 above).
- Re-admission is conditional upon space availability. When more applicants apply
than there are seats available, the Biomedical Engineering program reserves the right
to select those applicants deemed by the program to have the best chance for success.
- Exceptions to re-admission procedural regulations are rare. BCIT considers applicants
with extenuating circumstances on an individual basis, but there is no guarantee of
re-admittance as a condition of this review.
- The re-admission committee is composed of a minimum of two faculty members from
the department.
BC provincial exams
For programs beginning in August 2007 or later which require Grade 12 Math and Science courses, BCIT will not require the applicant to write the provincial exam. Provincial exam marks will still be required for English 12, Communications 12, and Technical and Professional Communications 12.
Technology entry
The Technology Entry (TE) program is a full-time, day school program which provides academic upgrading to students wishing to enrol in Computing, Engineering, Electronic and Health Sciences programs at BCIT.
The TE program provides courses in chemistry, communication, mathematics and physics that meet program prerequisites for selected programs at BCIT. The program also includes an introductory course in computer applications and a learning skills course. The program is supportive to those who require English-language training.
Application processing
October 1 of the previous year until the program fills.
Applications are considered for a specific intake. Selection Process
Due to the limited number of seats and the large number of applicants, the program accepts only the most suitable applicants.
Out-of-province and international applicants should review BCIT's applicant priority information.
costs & supplies
Books and supplies
Level 1: $950; Level 2: $700; Level 3: $900; Level 4: $700
(general estimated cost, and subject to change)
Plus cost of travel and accommodation if practicum takes place outside the Greater Vancouver area. General estimated cost and subject to change.
courses
Program matrix
| Level 1 (15 weeks) |
Credits |
| |
BHSC 1101 |
Anatomy and Physiology 1 (BMET)
Together with BHSC 2201, follows a systems approach to study the relationship between structure and function in the human body. Begins with a discussion of cells and tissues as basic structural/functional units. Introduces regulation and integration of body functions and the role of control systems in homeostasis. Covers major systems including the nervous, endocrine, and skeletal muscle systems. Where appropriate, gives examples of the uses of biomedical instruments in diagnosis and treatment.
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4.0 |
| |
BMET 1100 |
Electronics Principles and Practice 1
Covers both theoretical and practical basic knowledge of electrical passive components, electrical quantities, their units and relationships. The course includes DC, transient and AC circuit analysis for RCL circuits as well as magnetism and megnetic circuits. Lab exercises and instruction on electrical devices and techniques are coordinated with course content. Prerequisites: MATH 1781 and PHYS 1179 (may be taken concurrently).
|
9.0 |
| |
COMM 1178 |
Technical Communication 1 for Biomedical Engineering Technology
This course will introduce you to the writing, reading, listening, and speaking skills you will need to successfully carry out your professional communication tasks. You will learn how to organize and present technical information; write memos, letters, and reports; and prepare and deliver an oral presentation. In this term, you will collaborate with other students in a small group to write a formal research report, which will be presented in both written and oral form.
|
3.0 |
| |
COMP 1120 |
Introduction to Computer Architecture and Configuration
This course introduces students to typical PC architecture and organization. It gives an overview of the hardware organization and how operating system and application software interact with the hardware. The course covers PC system configuration, hardware and software installation as well as basic PC preventative maintenance and troubleshooting.
|
4.0 |
| |
MATH 1781 |
Technical Math for Biomedical Engineering
Covers systems of linear equations and determinants with application to electrical, networks, logarithmic and exponential functions including the study of electrical transients, dB gain, logarithmic and semilog graphing, trigonometric functions and the graphs of the sinusoidal functions - right triangle geometry with application to impedance and admittance diagrams, complex numbers, rectangular/polar conversion and AC circuit applications, number base conversion and binary number operations with a brief introduction to Boolean logic and Karnaugh mapping. Prerequisite: Math 12 B.
|
7.0 |
| |
PHYS 1178 |
Physics for Biomedical Engineering Technology
This is a general level course with emphasis on the application of basic physics principles to biomedical engineering technology. Topics covered include measurement techniques and reporting, equilibrium mechanics, stress and strain relationships, fluid statics and dynamics, wave motion with application to sound and ultrasound, and applied optics.
|
4.0 |
|   |
| Level 2 (20 weeks plus 1 week for BMET 0220) |
Credits |
| |
BHSC 2201 |
Anatomy and Physiology 2 (BMET)
A continuation of the systems approach to the study of human anatomy and physiology begun in BHSC 1101. Discusses major systems including the circulatory, respiratory, and urinary systems. Also introduces the electrical properties of bone under stress, and briefly discusses the digestive system. Gives examples of the uses of biomedical instruments in diagnosis and treatment. Prerequisites: BHSC 1101
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4.0 |
| |
BMET 0220 |
Mechanical Skills Workshop for Biomedical Engineering Technology
This is a hands-on workshop for biomedical engineering technology students. The workshop will introduce students to correct use of general hand tools and basic mechanical skills as employed in the profession. Safe working practice appropriate to shop activities will be emphasized. Prerequisite: BMET 1100 and enrolled as BMET Level 2 student.
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0.0 |
| |
BMET 2200 |
Electronics Principles and Practice 2
Analyzes the properties of AC and RLC circuits and introduces basic active devices and integrated circuits. Includes RC, RL, RLC circuits, RLC resonant circuits, 3 phase systems, transformers, motors/generators, semiconductor fundamentals, diodes, bipolar transistor and FET fundamentals, discrete amplifier circuits (single and multistage), amplifier stability, power amplifiers, oscillators, power supplies, and differential amplifiers. Corequisites: BMET2215, MATH 2781. Prerequisites: BMET 1100, MATH 1781, PHYS 1178
|
9.5 |
| |
BMET 2215 |
Digital Electronics
Introduces the principles and techniques of modern digital systems. The first half of the course covers the digital-numbering systems; truth tables and Boolean algebra; switches and relay control; electronic logic gates; noise margins and digital circuits specifications. Uses the TTL and CMOS data books to design various combinational logic circuits like encoders, decoders, multiplexes. The second half of the course covers sequential logic devices; flip-flops, counters, shift registers; arithmetic systems; converters A-to-D and D-to-A and memory devices. Also includes interfacing between IC logic families, gates with open collector, tri-state logic, data multiplexing, bus structure and an overview of a computer block diagram. Prerequisites: BMET 1100 and COMP 1120 and BMET 2200** (** must be taken concurrently)
|
6.5 |
| |
CHEM 1205 |
General and Organic Chemistry for Biomedical Engineering
This course starts with a review of the periodic table followed by a study of the mole, chemical equations and stoichiometric calculations. Oxidation and reduction will then be discussed with reference to balancing redox equations. Solution stoichiometry is then studied. Acid-base chemistry is studied with emphasis on the difference between strong and weak electrolytes and different types of buffer solutions. Electrochemistry is introduced with emphasis on different types of voltaic cells. Then the major groups of organic compounds are considered and the basic physical and chemical properties of each group are described. The laboratory work will acquaint the student with the basic techniques used in chemistry as well as several techniques used in a clinical laboratory.
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6.5 |
| |
COMM 2278 |
Technical Communication 2 for Biomedical Engineering Technology
This course continues the intensive study begun in COMM 1178 in the writing and speaking skills you will need to successfully carry out your professional communication tasks. You will design an effective resume and cover letter, and participate in a professional job interview, as both an interviewer and interviewee. You will write a technical description of a mechanism and a set of instructions for a procedure. You will also prepare and present an effective industry-relevant proposal, and learn the basic interpersonal skills to avoid and resolve conflict, and to ensure productive project meetings. Prerequisites: COMM 1178
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2.5 |
| |
ELEX 2860 |
Electronic Prototype Manufacturing
Through the design and manufacturing stages of building a DC power supply, students learn the skills required to fabricate single-sided printed circuit boards, perform high reliability soldering and de-soldering, wire and assemble electronic components, repair printed circuit boards and produce appropriate documentation. In addition, two electronic cables will be made using various types of end connectors.
|
4.0 |
| |
MATH 2782 |
Calculus for Biomedical Engineering
Covers discrete math (i.e. Newton's Method), rules of differentiation, rates of change, related rates, differentials, implicit differentiation with application to electrical and mechanical problems, definite and indefinite integral, calculation of mean, RMS values for various electrical waveforms, integration techniques, Fourier Series, and exponential Fourier Series applied to electrical circuits. Prerequisites: MATH 1781
|
6.5 |
|   |
| Level 3 (15 weeks) |
Credits |
| |
BMET 3300 |
Electronics Principles and Practice 3
This is the third of three courses in the study of analog electronic devices and circuits for the BMET program. The course provides further knowledge of linear and nonlinear electronic circuits. Major topics covered include: operational amplifier circuits; feedback circuits, oscillators and timers; voltage regulation including linear and switched-mode regulators; thyristor devices and phase control circuits; data acquisition systems A to D and D to A converters; interfacing devices and techniques and phase locked-loop circuits. Each topic is reinforced by practical applications examined in the laboratory section of the course. Prerequisites: BMET 2200 and BMET 2215 and ELEX 2860 and MATH 2782
|
6.0 |
| |
BMET 3301 |
Biomedical Devices Technology 1
Presents the characteristics of biological signals and introduces methods to collect, process, display and record such signals. Discusses the principles of operation, block diagrams, schematic diagrams, performance testing procedures and common problems of selected physiological monitoring equipment. Coordinates lab exercises with course content. Prerequisites: BHSC 2201, BMET 2200, BMET 2215, CHEM 1205, COMM 2278, ELEX 2860, MATH 2782, CHEM 2305 (may be taken concurrently with BMET 3301)
|
6.0 |
| |
BMET 3302 |
Medical Device Standards
Consists of three modules: Biomedical Engineering Practice, Medical Device Standards and Regulations, and Troubleshooting Techniques. Biomedical Engineering Practice includes the discussion of the hospital and medical device industry environment as well as the functions of the biomedical engineering technologists in R & D and technical support settings. Medical Device Standards and Regulations introduces Z32-99 (Electrical Safety in Patient Care Areas) and IEC 60601 (Medical Electrical Equipment) standards, Canadian HPFB and US FDA medical device regulations with emphasis on electrical safety and design assurance. Finally, discusses and applies different approaches to problem- solving and troubleshooting techniques. Laboratory sessions, projects and assignments reinforce the theory and allow you to gain experience in electrical safety measurements and troubleshooting techniques. Prerequisites: BHSC 2201 and BMET 2200 and BMET 2215 and CHEM 1205 and COMM 2278 and ELEX 2860 and MATH 2782
|
5.0 |
| |
BMET 3303 |
Biomedical Computer Networks and Data Communications
Introduces students to the principles of data communications and network fundamentals with applications in biology and medicine. The Open System Interconnect (OSI) model is used to discuss network architectures, protocols, hardware and software. Layers one, two and three together with the Ethernet network standard (IEEE802.3) and the Transmission Control Protocol/Internet Protocol (TCP/IP) will be emphasized. Analog and digital data communications, transmission methods, coding schemes and commonly used communication standards in the medical device industry are also discussed. During the laboratory sessions networks will be designed, built and managed to enhance understanding of the key theoretical concepts and to gain hands-on experience with computer networks. The Biomedical Computer Network aspect includes theory and laboratory sessions on Telemetry, Picture Archiving Communication Systems (PACS) and topics that are particularly relevant to the medical device environment such as medical device-to-network interfaces. Prerequisites: COMP 1120 and BMET 2200 and BMET 2215
|
5.0 |
| |
CHEM 2305 |
Biochemistry/Instrumental Analysis
Combines the study of the most important aspects of biological chemistry (i.e. properties of carbohydrates, proteins and lipids and how these are metabolized in the body) with a study of the instrumental methods used to analyse substances of biological importance (i.e. spectroscopy, chromatography and electrochemistry). Prerequisites: CHEM 1205
|
5.0 |
| |
COMP 3152 |
Software Engineering
This course will give students an understanding of software engineering on a variety of levels. Topics include: basic microprocessor/computer architecture, software development methodology and tools, assembly language programming, and C programming. If time permits, elements of scientific algorithms and real-time programming wil also be included. The goal of this course is to give the student an in-depth view of software engineering starting from the hardware level building up to the use of high level programming languages.
|
3.0 |
|   |
| Level 4 (15 weeks plus practicum) |
Credits |
| |
BMET 4401 |
Biomedical Devices Technology 2
Presents the principles of operation, design, construction, potential hazards and common problems of diagnostic and therapeutic medical equipment (e.g. electrosurgical units, cardiac defibrillators, etc.) used in the clinical environment. Covers selected equipment in more detail (may go over schematic diagrams, wiring diagrams, performance assurance tests, calibration procedures and problem solving). Coordinates lab exercises with course content. Prerequisites: BMET 3300 and BMET 3302 and CHEM 2305 and COMP 3152 and BMET 3301
|
7.0 |
| |
BMET 4402 |
Biomedical Engineering Technology Project
During the course, students will undertake and complete a biomedical engineering project. From the given functional specifications, students will develop detailed specifications, a project plan and schedule of the project. The project will be carried out with design methodologies that are consistent with ISO 13485 and QSR (21CFR820.30). Following detailed planning, students will participate in the design and development of the project, and will complete the project independently. These tasks will include circuit design, parts acquisition, printed circuit board layout, circuit building, package design and fabrication, wiring, troubleshooting and final testing. Students will maintain a detailed design history file, a logbook of their work throughout the course, and will prepare a technical report at the completion of their project. The process of design, prototyping, verification, validation and documentation will be introduced at different stages of the course. Prerequisites: BMET 3300 and BMET 3301 and BMET 3302 and CHEM 2305 and COMP 3152 and COMM 3478** (** must be taken concurrently)
|
3.0 |
| |
BMET 4403 |
Medical Imaging Systems
Studies the basic operation and hardware involved in imaging systems used in medicine. Covers the fundamental principles, functional building blocks and quality assurance of radiography, nuclear medicine and ultrasound imaging equipment. Introduces concepts in radiation protection, other imaging modalities such as MRI and PET as well as the fundamentals of digital radiology and PACS. Reinforces lectures with practical laboratory sessions. Prerequisites: BMET 2215 and BMET 3300 and BMET 3301
|
5.0 |
| |
BMET 4415 |
Digital Systems and Microprocessors
Applies knowledge gained in BMET 2215 and COMP 3151 to introduce and perform a study of a microcontroller system. Includes internal microcontroller architecture; programming model; machine/assembly/high level language; instruction format; structured programming; addressing modes; subroutines and parameter passing; Input/Output data transfer format; digital communications; interrupts; microprocessor development systems; some development tools and relationships between these tools. Uses the Motorola 68HC16 microcontroller as a learning tool. Prerequisites: BMET 2215 and BMET 3300 and COMP 3152
|
5.0 |
| |
BMET 4420 |
Practical Experience in Biomedical Engineering Technology
Enables you to reinforce your knowledge and gain practical working experience in the field of biomedical engineering technology. Allows you to work under supervision in a hospital, medical device manufacturing facility, research and development laboratory, or technical service and support organization. The work experience is five weeks in duration. Prerequisites: COMM 3478 and BMET 4401 and BMET 4402 and BMET 4403 and BMET 4415 and ELEX 4855 and MATH 3872 and NURS 1182
|
7.0 |
| |
COMM 3478 |
Technical Communication 3 for Biomedical Engineering Technology
This course builds on the skills learned in COMM 1178 and 2278 to write effective reports and a project manual. This operation and service manual is for a device that they design and build in their technology course. In addition, students will update their resumes to graduate level requirements. Prerequisites: COMM 2278 and BMET 4402* (* may be taken concurrently)
|
1.0 |
| |
ELEX 4855 |
Electronic Image Displays
Introduction to the techniques and mechanisms for digital image acquisition, display, storage and processing. System design is presented with reference to economic and technical considerations. Topics include image display capabilities and requirements, image archiving, scanning method of image acquisition devices and a system overview with emphasis on system hardware fault analysis. Prerequisites: BMET 2215 and BMET 3300 and COMP 3152
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4.0 |
| |
MATH 3782 |
Statistics for Biomedical Engineering
Descriptive statistics. Estimation, central limit theorem, standard errors, confidence intervals, hypothesis testing, the t- distribution. Linear regression and correlation. Empirical curve fitting. Introduction to quality control. Computer packages will be discussed. Prerequisites: BMET 2200
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2.0 |
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NURS 1182 |
Patient Care
Introduces students to the hospital environment and the basic safety concepts of patient care. Includes observation and communication skills, body mechanics, fire safety and medical and surgical asepsis. Prerequisites: COMM 2278
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2.0 |
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| Total Credits: |
136.5 |
Transfer credit
Do you have credits from another BC/Yukon post-secondary school? Do you want to know if
they transfer to courses here at BCIT? Check out BCIT's
Transfer Equivalency Database to find out.
program details
Program length
Two years, full-time beginning in September each year.
Accreditation
The Canadian Technology Accreditation Board (CTAB) accredits the Biomedical Engineering Technology program. Graduates are eligible for registration as Applied Science Technologists (AScT) through ASTTBC after two years of relevant work experience following graduation.
graduating & jobs
Job Opportunities
Graduates of the Biomedical Engineering Technology program may be employed in hospitals, clinics, research laboratories, medical equipment manufacturer sales, and service organizations.
Biomedical Engineering Technologists may be responsible for scheduled and corrective maintenance and safety inspection of medical equipment, participate in research and development, purchase specification, equipment evaluation, testing and commissioning, operator training, and the management of risks involving the use of biomedical equipment.
Graduate employment outcomes
The following link takes you to graduate outcome survey results containing mostly labour market results from the 2007-2009 BCIT Outcomes Surveys of 2006-2008 Graduates. Note: The survey results will be displayed in a separate browser window. To view these results, you need to have the Adobe Acrobat Reader installed in your Web browser.
continuing education
Laddering opportunities
For graduates interested in pursuing further studies, BCIT offers the Bachelor of Technology Degree in Technology Management (Health Option). Upon completion, graduates may proceed to Simon Fraser University's Master of Technology (MOT) MBA program and have the option to complete the MOT MBA degree in one year full-time, or two years part-time.
Graduates interested in pursuing an engineering degree may be granted up to 42 credits in the Biomedical Engineering option of the Engineering Sciences Bachelor Degree Program at the Simon Fraser University. Please contact the BCIT BMET Program Head for details.
Distance & online learning courses
Interested in Biomedical Engineering distance & online learning credit courses? We offer these online, Web-based courses:
We also offer more courses, seminars and workshops on campus:
Other continuing education
BCIT also offer other courses, seminars and workshops on Campus. Please check BCIT Part-time Studies for courses being offered.
Note: BCIT reserves the right to cancel a seminar, course or workshop or modify the contents without notice.
faculty, advisors & staff
Anthony Chan
MEng, MSc, PEng, CEng, CCE
Program Head, Biomedical Engineering,
School of Health Sciences
Tel: 604-432-8994
Email: Anthony_Chan@bcit.ca
More about Anthony Chan »
Work experience
Anthony Chan has been a faculty member of the British Columbia Institute of Technology since 1992 and is currently the Program Head of the Biomedical Engineering Technology Program. He is also an Adjunct Professor of the Chemical and Biological Engineering Department at the University of British Columbia. Prior to joining BCIT, Anthony was the Director of Biomedical Engineering at the Royal Inland Hospital in Kamloops, B.C and the Consultant and Manager of the Biomedical Engineering Departments at the Burnaby and Lion's Gate Hospitals in Vancouver, B.C.
Anthony is a Professional Engineer, a Chartered Engineer (UK), a Certified Clinical Engineer, a senior member of the IEEE and a member of the CMBES, IET and HKIE.
Education
Anthony graduated (B.Sc. with honours) in Electrical Engineering from the University of Hong Kong in 1979 and completed his M.Sc. in Engineering from the same University. He has a Master's Degree (M.Eng.) in Clinical Engineering from the University of British Columbia, B.C., Canada and holds a Certificate in Health Services Management from the Canadian Healthcare Association.
Publications
Anthony has research interest in medical devices and technology management. He has published peer-reviewed papers and presented at biomedical engineering conferences.
He is the author of the books "Medical Technology Management Practice" (2003) and "Biomedical Device Technology: Principles and Design" (2008).
Professional Awards
Anthony was nominated and received the Outstanding Canadian Biomedical Engineer Award in 2007 from the Canadian Medical and Biological Engineering Society for outstanding contributions to the field of biomedical engineering.
He was also the recipient of the BCIT Alumni Association Excellence in Teaching and Research Award in 2009 for making a tangible difference in helping BCIT to produce exceptional graduates and has enhanced BCIT's world class reputation.
Cristina Aldulea
MSc
Instructor,
School of Health Sciences
Tel: 604-451-6995
Email:Cristina_Aldulea@bcit.ca
More about Cristina Aldulea »
Work experience
Cristina Aldulea joined the faculty of the Biomedical Engineering Technology Program 1999. Her teaching duties at BCIT include microprocessors, analog and digital electronics.
She holds a M.Sc. Degree in Electronics and Telecommunications from the University Politechnica of Bucharest, and a Diploma of Technology in Biomedical Engineering from BCIT.
These are some of the professional positions she held over the years:
- Biomedical Engineer Technologist - Xillix Technologies Corporation and Surrey Memorial Hospital
- Electronic Hardware Designer - ACR Systems Inc. Surrey
- Design Engineer - National Institute for Scientific Research and Technological Engineering Bucharest
- Design Engineer and Project Coordinator - Automation Department UT Brasov.
Bruno Jaggi
DiplT, BASc, MASc, PEng
Instructor,
School of Health Sciences
Tel: 604-432-8509
Email:Bruno_Jaggi@bcit.ca
More about Bruno Jaggi »
Work experience
Bruno is a Professional Engineer (P.Eng.) with 25 years of health technology experience in biomedical research and the medical device industry. He is a faculty member in the Biomedical Engineering Technology Program at the British Columbia Institute of Technology as well as an Adjunct Professor in the Department of Chemical and Biological Engineering at the University of British Columbia.
He is a member of the board of a medical device company, Tidal Photonics Inc. and a director of the Medical Device Development Center in Vancouver.
Prior to joining BCIT in 1999, Bruno was Senior Vice President and Chief Engineer at Xillix Technologies Corp., a medical device company he co-founded in 1988. From 1983 to 1993, Bruno was a Research Engineer and member of the scientific professional staff at the British Columbia Cancer Research Centre.
Education
Bruno received a Master Degree in Engineering Sciences (M.A.Sc.) form Simon Fraser University. He also holds a degree in Electrical Engineering (B.A.Sc.) from the University of British Columbia and was trained in mechanical and electrical engineering (Dipl. T) in Switzerland.
Publications
Bruno has authored more than 50 papers and patents related to image cytometry, endoscopic tissue fluorescence, digital camera technology, digital image processing, and microscopy.
Professional awards:
The Friesen-Rygiel Prize 1999: awarded to the partners that transfer a Canadian discovery leading to a commercial enterprise.
The BCIT Applied Research Excellence Award 2006: awarded to a BCIT faculty who has made an outstanding contribution in term of advancement of knowledge through development, application and implementation of technology.
Special interests
- Teaching
- Medical Device Development
- Biophotonics
- Digital Biomedical Imaging
Ryan Jackson
DiplT, AScT
Assistant Instructor,
School of Health Sciences
Tel: 604-432-8520
Email:Ryan_Jackson@bcit.ca
More about Ryan Jackson »
Work experience
Ryan worked as an engineering assistant from 1992 to 1994 at Xillix Technologies Corporation in Richmond, B.C. performing duties in medical device research & design, prototyping and manufacturing. He spent three years at Vancouver General Hospital before returning to BCIT as an Assistant Instructor.
As a Biomedical Technologist at VGH, he specialized in Anaesthetic/Operating Room equipment as well as Intensive Care equipment. Ryan is an Applied Science Technologist (Biomedical) certified through Applied Science Technologists & Technicians of British Columbia (ASTTBC).
Education
Ryan graduated from the BCIT Biomedical Engineering Technology program in 1996.
Bill Dow
Associate Dean,
School of Health Sciences
Tel: 604-432-8295
Email:Bill_Dow@bcit.ca
Virginie Wong
Program Assistant,
BMET Day School Program
School of Health Sciences
Tel: 604-432-8831
Email:Virginie_Wong@bcit.ca
Sharon Cameron
Program Assistant,
BMET Part-time Studies Program
School of Health Sciences
Tel: 604-432-8723
Email:Sharon_Cameron@bcit.ca
As BCIT strives to keep our programs current, programs and courses are subject to change without notice.
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