University of Oregon

What you'll study

The PhD programme emphasises deep, independent research supported by a structured set of advanced coursework and professional development. Students typically complete core and elective courses in areas such as biomaterials, biomechanics, bioinstrumentation, biomedical imaging, cellular and tissue engineering, computational biology and machine learning for biomedical applications.

• Core topics: principles of biological systems, biomechanics, biomaterials, physiological signal acquisition and analysis, and quantitative methods (linear systems, statistics, numerical methods).
• Electives and specialised modules: neural engineering, microfluidics and lab-on-a-chip technologies, tissue engineering and regenerative medicine, imaging modalities (MRI, ultrasound, optical), bioinformatics, synthetic biology and biosensors.
• Research training: early rotations or laboratory placements to identify a dissertation advisor, followed by focused dissertation research, regular progress reviews, and preparation of peer-reviewed publications.
• Professional development: ethics in research, grant-writing seminars, teaching opportunities, and career preparation workshops including entrepreneurship and technology translation.

The programme balance between coursework and research is tailored to the student’s background: those entering with a master’s degree typically move to full-time research more quickly, while students coming from a bachelor’s-level background may take additional advanced courses to build depth before or during their research phase. Completion normally requires qualifying examinations and a defended doctoral dissertation based on original research.

Entry requirements

Applicants are expected to have a strong quantitative and scientific background. Typical requirements include:

• Academic credentials: a relevant bachelor’s or master’s degree in engineering, bioengineering, physics, chemistry, biology, computer science or a closely related discipline. Applicants with a master’s may be preferred but exceptional candidates with a bachelor’s degree are considered.
• Preparation: undergraduate coursework in mathematics (calculus, linear algebra), physics, and programming, plus foundational courses in biology or engineering depending on the applicant’s background.
• Application materials: academic transcripts, a curriculum vitae, a personal statement describing research interests and goals, and three letters of recommendation from academic or research supervisors.
• Standardised tests and language: some programmes may treat standardised test scores as optional; international applicants must demonstrate English proficiency through recognised tests unless exempted by institutional policy.
• Research experience: prior laboratory or project experience is strongly advantageous and applicants should highlight publications, conference presentations, or significant project work.

Career prospects

Graduates of the PhD in Biomedical Engineering pursue a wide range of careers. Many go on to academic research and faculty positions where they lead laboratories and teach. Others take senior R&D roles in medical device and biotechnology companies, clinical engineering groups, imaging and diagnostics firms, or computational health and data-driven life-science companies.

• Research scientist or principal investigator in universities and national laboratories
• R&D engineer in medical device, diagnostics or pharmaceutical firms
• Biomedical data scientist, imaging specialist or bioinformatics lead in industry
• Regulatory science, clinical translation and technology transfer roles within hospitals, incubators and start-ups
• Consulting, patent and regulatory advisory positions that require deep technical expertise

Why study at University of Oregon

The University of Oregon offers an interdisciplinary environment where biomedical engineering research benefits from collaborations across materials science, biology, computer science and chemistry. Students have access to modern core facilities and laboratory space designed for biomaterials, microscopy, imaging and prototyping, and to campus initiatives that support translational research and entrepreneurship.

Doctoral students benefit from close mentorship by faculty engaged in diverse biomedical research areas, opportunities for cross-departmental collaboration, and a campus culture that emphasises hands-on research training and professional development. The programme’s location and institutional partnerships also facilitate connections with regional industry, clinical collaborators and technology incubators for students pursuing translational paths.