Biomedical Mechanical Engineering University of Ottawa

Overview

The Biomedical Mechanical Engineering programme at the University of Ottawa provides students with a rigorous education in mechanical principles applied to the complex field of human health. This degree integrates traditional engineering disciplines with specialised biological sciences to prepare graduates for technical challenges in the medical sector. Students explore the intersection of physical mechanics and life sciences through a structured curriculum.

Why Biomedical Mechanical Engineering at the University of Ottawa?

The University of Ottawa offers a unique curriculum that parallels its standard mechanical engineering stream while incorporating eight dedicated biomedical courses. This dual focus ensures students develop a versatile skill set applicable to both specialised medical technology and conventional industrial engineering. The institution provides access to co-operative education, allowing students to gain professional experience through integrated work terms. Facilities support research in advanced areas such as artificial heart design, rehabilitation robotics, and tissue engineering.

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 covers fundamental engineering science alongside advanced biomechanical applications. Modules may include:

• Engineering Mechanics
• Human Anatomy and Physiology
• Thermodynamics
• Biofluid Mechanics
• Machine Design
• Biomechanics of Human Movement
• Biomedical System Dynamics
• Heat Transfer
• Bioethics

Careers with Biomedical Mechanical Engineering

Graduates are equipped for diverse professional paths within the healthcare technology sector and broader engineering industries. Common career outcomes include the design and manufacture of medical implants, artificial organs, and prosthetic devices. Opportunities also exist in the development of surgical robotics and rehabilitation equipment. Because of the strong foundation in mechanical principles, alumni are also qualified for roles in traditional sectors such as aerospace, automotive manufacturing, and energy conversion.