About this major
Biomedical Engineering is an interdisciplinary field that combines principles of engineering with biological sciences to develop technologies and devices that improve healthcare. Students learn about biomechanics, medical imaging, and the creation of medical devices, preparing them to innovate in sectors like prosthetics, diagnostics, and pharmaceuticals.
Student Reviews Summary
Curriculum snapshot
Introduction to Biomedical Engineering
Covers the fundamentals of applying engineering principles to biological systems, including an overview of medical devices and healthcare technologies.
Biomechanics
Explores the mechanical aspects of biological organisms, focusing on the analysis of movement and the forces involved in human motion.
Biomedical Instrumentation
Focuses on the design and application of electronic devices and systems used in medical diagnostics and treatment.
Medical Imaging
Introduces the principles and techniques used in creating images of the human body for clinical purposes, including MRI, CT, and ultrasound.
Biomaterials
Examines materials used in medical applications, their interactions with biological systems, and their role in device design.
Cell and Tissue Engineering
Covers the engineering of cells and tissues for therapeutic applications, including regenerative medicine and tissue replacement.
Career outcomes
- Biomedical Engineer
- Clinical Engineer
- Medical Device Designer
- Research Scientist
- Regulatory Affairs Specialist
Pros
- High demand in healthcare innovation
- Interdisciplinary learning and application
- Opportunities to improve patient care
Considerations
- Requires strong foundation in both engineering and biology
- Competitive job market
- Continuous learning to keep up with technological advances
Similar majors
Mechanical Engineering
Focuses on the design and analysis of mechanical systems, sharing common ground with biomechanics in biomedical engineering.
Electrical Engineering
Involves electronics and systems design, which are crucial in biomedical instrumentation and medical devices.
Biotechnology
Centers around the use of biological processes for industrial and other purposes, complementing biomedical engineering in areas like tissue engineering.
Chemical Engineering
Applies principles of chemistry and engineering to solve problems, similar to processes in biomaterials and pharmaceuticals.
Materials Science
Studies the properties of materials, essential for the development of biomaterials used in medical devices.