University of Oregon

What you'll study

This PhD is a research-led programme centred on original dissertation work in areas such as cellular and molecular neurobiology, systems and circuit neuroscience, sensory and motor systems, cognitive and behavioural neuroscience, developmental neurobiology and computational neuroscience. The programme is administered through the University of Oregon's interdisciplinary neuroscience community and draws faculty from biology, psychology, human physiology, mathematics/computer science and related units.

• Core coursework and methods: advanced neurobiology, neurophysiology, synaptic and molecular mechanisms, quantitative methods for neuroscience, and neural data analysis.
• Technical training: hands-on modules and workshops in electrophysiology, in vivo and in vitro imaging, optogenetics/chemogenetics, microscopy, behavioural assay design, and computational modelling.
• Laboratory rotations and research seminars: early rotations with potential supervisors, weekly seminars, journal clubs and presentation of research in departmental fora.
• Professional development: training in scientific communication, grant writing, teaching practicum or assistantships, and ethical conduct in research.
• Qualifying milestones: completion of required coursework, passing a qualifying/advancement examination, and defence of a dissertation proposal prior to full entry into the dissertation phase.

Entry requirements

Applicants are normally expected to hold a relevant bachelor's or master's degree with strong performance in biology, neuroscience, psychology, physiology, or a related quantitative discipline. Successful candidates typically demonstrate significant undergraduate or postgraduate research experience in a laboratory setting.

• Academic transcripts from all post‑secondary institutions attended.
• A research statement outlining interests and potential faculty mentors; clear evidence of alignment with the programme's research strengths is advantageous.
• Curriculum vitae describing research experience, presentations and publications where applicable.
• Letters of recommendation (usually three) from referees who can assess research potential.
• Proof of English language proficiency for applicants whose first language is not English, in accordance with university requirements.

Some applicants may enter with a master’s degree, while others will be admitted directly from a bachelor’s degree if they show exceptional research promise. GRE scores are not universally required; check the department's admissions page for current testing policies.

Career prospects

Graduates of the programme pursue a variety of careers that build on advanced experimental and analytical skills. Typical pathways include:

• Academic research and teaching: postdoctoral research positions leading to faculty appointments in universities and research institutes.
• Industry research and development: roles in biotechnology, pharmaceuticals, medical device companies and neurotechnology start-ups focused on drug discovery, neural interfaces, imaging or diagnostics.
• Data science and computational roles: applying quantitative and modelling expertise to big data problems in healthcare, tech and finance sectors.
• Clinical and translational careers: positions in translational neuroscience, clinical research organisations or collaborative projects with medical centres (additional clinical qualifications may be required for some roles).
• Science policy, communication and education: careers in policy development, science outreach, regulatory affairs, or secondary and higher education.

Why study at University of Oregon

The University of Oregon offers a collaborative, interdisciplinary neuroscience environment with access to modern core facilities and a range of methodological expertise. Students benefit from close mentoring by faculty engaged in both fundamental and translational research, plentiful opportunities for cross‑departmental collaboration, and training that emphasises quantitative approaches and reproducible science.

• Research infrastructure: access to imaging and microscopy cores, electrophysiology suites, behavioural testing facilities and high‑performance computing resources.
• Interdisciplinary community: strong links between biology, psychology, human physiology and computational groups encourage broad approaches to nervous system questions.
• Support for trainees: teaching and mentoring opportunities, grant-writing workshops, and professional development to prepare students for diverse careers.
• Location and quality of life: the Eugene campus offers a collegial academic atmosphere, opportunities for field and behavioural studies, and proximity to clinical and industry partners in the region.

Prospective applicants should consult the programme's official pages and contact potential faculty mentors to learn about specific research opportunities and current lab openings before applying.