Stevenson University

Programme overview

This undergraduate engineering degree teaches students how to apply engineering methods to biological and clinical problems. Coursework and lab work emphasize systems-level thinking, instrumentation, biomaterials, biomechanics and the regulatory and ethical context of medical technology. The curriculum typically culminates in team design and capstone projects that simulate industry or clinical partnerships.

What you'll study

• Foundations: calculus, physics, chemistry and introductory biology to build the quantitative and life-science base.
• Core engineering: circuits, mechanics, signals and systems, and engineering design principles tailored to biomedical applications.
• Biomedical topics: physiology for engineers, biomaterials, biomechanics, medical imaging basics and biosensors.
• Laboratory and practical work: hands-on lab courses, instrumentation labs, and courses that teach measurement, data acquisition and safety/sterility procedures.
• Design and integration: team-based design projects and a capstone that emphasize prototyping, testing, documentation and consideration of regulatory pathways.
• Complementary skills: technical communication, ethics in medical technology, and introductory topics in clinical workflows and health-care systems.

Entry requirements

Applicants should hold a high-school diploma (or equivalent) with a strong background in mathematics (including precalculus or calculus), physics and chemistry. Admissions typically evaluate preparation in laboratory science, problem-solving ability, and readiness for rigorous quantitative coursework; some programmes recommend portfolio materials or interviews for design-focused tracks.

Career prospects

Graduates work in medical device and diagnostics companies, hospital clinical engineering departments, research labs, regulatory and quality roles, and biomedical startups. Common entry positions include design engineer, test/validation engineer, applications or service engineer, and research technician. With experience or further study, careers can progress into product development leadership, clinical affairs, regulatory affairs, or advanced research and academic roles.

Scholarships & funding angle (general)

Prospective students should explore institutional scholarships for STEM majors, merit-based awards, need-based aid and external scholarships from professional societies and device industry groups. Cooperative education, research assistantships and internships can provide paid experiential learning that helps offset costs while improving employability.