Biomedical Mechanical Engineering and Computing Technology University of Ottawa

Overview

The Biomedical Mechanical Engineering and Computing Technology programme at the University of Ottawa provides a rigorous dual-discipline education designed to bridge the gap between mechanical engineering and modern computer science. Students engage with complex systems to develop innovative solutions for the healthcare sector, ranging from artificial organs to sophisticated medical software. This integrated pathway ensures that graduates possess the technical versatility required for the evolving engineering landscape.

Why Biomedical Mechanical Engineering and Computing Technology at the University of Ottawa?

This programme stands out by paralleling a standard mechanical engineering curriculum while incorporating specialised biomedically-oriented coursework and computing depth. Students benefit from a broad scope of study that covers the design of artificial hearts, biocompatible materials, and medical robotics. The University of Ottawa also offers a co-operative education option, allowing students to gain professional experience through integrated work terms. Furthermore, the bilingual environment provides a unique opportunity to start studies in French before transitioning to English-led advanced modules.

Tuition Fee Breakdown

• International fee: CAD 31582 per semester
• National fee: CAD 4779 per semester

Visit the Fees and Funding section for a breakdown in your local currency.

Syllabus

The curriculum combines fundamental engineering science with specialised computing and biomedical modules. Modules may include:

• Engineering Mechanics
• Digital Systems
• Computing
• Human Anatomy and Physiology
• Mechanics of Materials
• Thermodynamics
• Data Structures and Algorithms
• Programming Paradigms
• Machine Design

Careers with Biomedical Mechanical Engineering and Computing Technology

Graduates are prepared for diverse professional roles within both the biomedical sector and traditional mechanical engineering industries. Potential career paths include the design and manufacture of medical implants, prostheses, and diagnostic equipment. The inclusion of computing technology expertise also opens opportunities in software development, robotics for medical applications, and rehabilitation engineering. Graduates may find employment in research and development laboratories, medical device manufacturing companies, or healthcare technology firms.