University of Oregon

What you'll study

The master's programme combines core engineering fundamentals with specialised biomedical topics and hands‑on laboratory experience. Students typically take coursework in areas such as biomechanics, biomaterials, tissue engineering, biomedical imaging, bioinstrumentation, and computational modelling of biological systems. Coursework emphasises quantitative analysis, experimental design, and the translation of discoveries into devices and therapies.

• Core topics: biomechanics, biomaterials and biomolecular engineering, biomedical imaging and signal processing, systems physiology and biofluid mechanics.
• Methods and tools: laboratory techniques, microfabrication and prototyping, medical device design, statistical and computational methods (finite element analysis, image analysis, machine learning for biological data).
• Research and project work: supervised thesis research for MS thesis students or a capstone design/project for non‑thesis options; seminar participation and research rotations with faculty laboratories.
• Interdisciplinary opportunities: collaboration with clinical partners and research centres within the University of Oregon (including the Knight Campus) and neighbouring institutions to work on translational projects.

Programme structure

The degree is offered with thesis and non‑thesis routes. The thesis route emphasises original research under a faculty advisor and culminates in a written thesis and oral defence. The non‑thesis option focuses on advanced coursework and a design or research project. Typical degree requirements include a combination of graduate‑level courses, a research or capstone component, and seminar participation.

Entry requirements

Applicants should hold a recognised bachelor's degree in engineering, physics, mathematics, computer science, biology or a closely related field. A strong quantitative background is expected, including coursework in calculus, differential equations, linear algebra, and introductory engineering or physical sciences. Prior exposure to biology or physiology is desirable for some specialisations.

• Academic transcripts: official transcripts showing a competitive undergraduate record.
• Supporting materials: statement of purpose describing research or career goals, curriculum vitae, and letters of recommendation from academic or professional referees.
• Prerequisites: applicants who lack specific prerequisites may be admitted conditionally and required to complete preparatory courses.
• International applicants: proof of English language proficiency where required and equivalent academic documentation.

Career prospects

Graduates enter a range of roles across academia, industry and healthcare. Common career paths include research and development in medical devices and biotechnology firms, clinical engineering and hospital technology management, regulatory and quality roles within life sciences companies, and consulting. Many students also use the MS as preparation for doctoral study or for entrepreneurial ventures that commercialise new biomedical technologies.

• R&D engineer in medical device and diagnostics companies
• Biomedical systems engineer and imaging specialist
• Clinical engineer or hospital technology specialist
• Regulatory affairs and quality assurance roles in life sciences
• PhD programmes and academic research positions

Why study at University of Oregon

The University of Oregon offers a multidisciplinary environment with close ties between engineering, the biological sciences and clinical partners. Research facilities such as the Knight Campus and departmental laboratories provide access to modern instrumentation for biomaterials, imaging and prototyping. Small cohort sizes enable close mentorship from faculty active in translational research, and the programme encourages collaboration with regional medical centres and industry partners to support applied projects and career development.

Students benefit from a balance of rigorous technical training and opportunities to develop practical design, prototyping and translational skills useful for careers in industry, healthcare and research.