The SBME Undergraduate program is centred around four main BME themes. As you progress through your degree and learn about each, you can begin to customize your learning experience toward the specific stream that interests you the most. This means you get learning experience across a broad spectrum of topics while delving deep into the subject of your choosing. These streams are broad and interdisciplinary with one another, and this streams model allows you to truly customize your Biomedical Engineering Degree to your interests. See streams below.
Students can review streams courses on the Curriculum Page.
Cellular Bioengineering applies engineering principles of design, analysis and methodology to cellular and molecular biology for the development of cell-based therapeutics in regenerative medicine and drug delivery. Students will use biology, chemistry and engineering to discover how essential molecular level interactions can benefit human health. Examples of cellular bioengineering range from gene therapy, synthetic biology, tissue engineered organs, protein engineering and nucleic acid engineering.
Biomedical Systems & Signals
Biomedical Systems & Signals provides an understanding of the fundamental processes that produce and transform signals in biological systems, and the method by which these signals are transformed to generate information. Students will explore imaging and electronic sensing technology and analyze the measurements that supply clinicians with empirical evidence to enable informed decisions. Key application areas include X-rays, CT scans, ultrasound, MRI, ventilation and cardiac function sensing, neural engineering and wearable sensors.
Biomaterials & Biomechanics
Biomechanics & Biomaterials focuses on the application of principles of classical mechanics to problems in biological systems and views the body as an engineered structure. Students will learn the role mechanics plays in both injury and disease and use this knowledge to develop better prevention and treatment approaches. Biomechanics and biomaterials play a vital role in the design of novel safety devices, surgical implants and surgical instrumentation for organs, soft tissues, hard tissues and articulating joints by addressing how natural and synthetic materials interact with biological systems.
Biomedical Informatics involves the application of computationally-intensive analysis and statistical techniques to increase the understanding and utility of biological and medical data and focuses on using data and analytics to understand and decode highly complex biological processes. This stream explores the use of patient health care information to understand disease and pathophysiology, and to improve outcomes. Key application areas include pattern recognition, data mining, machine learning algorithms, drug design and gene finding.