University of Cincinnati

What you'll study

The PhD in Materials Engineering combines advanced coursework with independent, faculty‑mentored research. Early in the programme students complete core and elective modules to build depth in materials fundamentals and specialised subjects, then move on to a qualifying examination and full‑time dissertation research.

• Core topics: thermodynamics and kinetics of materials, materials characterisation techniques, mechanical behaviour of materials, materials processing and microstructure–property relationships.
• Specialist areas: biomaterials and tissue engineering, polymer and soft materials, ceramics and refractory materials, metals and alloys, electronic and functional materials, nanomaterials and interfaces, corrosion and environmental degradation, composites and structural materials.
• Techniques and tools: electron microscopy (SEM/TEM), X‑ray diffraction (XRD), spectroscopy, thermal analysis (DSC/TGA), mechanical testing, surface analysis and cleanroom‑based micro/nanofabrication; access to additive manufacturing and advanced processing equipment is commonly available.
• Programme structure: students typically take advanced coursework in the first year, pass a qualifying or preliminary examination, propose and defend a dissertation research plan, then concentrate on supervised research leading to a written thesis and oral defence.
• Research training: the programme emphasises both experimental and computational approaches, with opportunities for interdisciplinary projects spanning biomedical engineering, chemical engineering, electrical engineering and mechanical engineering.

Entry requirements

Applicants should hold a relevant master’s degree or a strong bachelor’s degree in materials science/engineering, mechanical engineering, chemical engineering, physics, chemistry or a closely related discipline. Admission is based on academic record, research experience and fit with faculty research interests.

• Academic transcript: evidence of strong performance in previous degree(s), especially in materials‑related coursework.
• Research experience: prior laboratory experience, publications or a substantial master’s thesis are highly desirable and strengthen an application.
• References: two or three academic or professional references who can comment on research potential and preparedness for doctoral study.
• Statement of purpose: a clear description of research interests, relevant background and preferred faculty supervisors or research groups.
• English language: applicants whose first language is not English will need to meet the university’s English proficiency requirements.
• Funding and assistantships: many admitted PhD students receive support through research assistantships, teaching assistantships or fellowships; availability of funding is typically tied to faculty research grants and departmental budgets.

Career prospects

Graduates of the PhD programme are prepared for careers in academic research and teaching, industrial R&D, technical leadership and principal investigator roles, and positions in government or national laboratories. Common career paths include:

• University faculty positions and postdoctoral research appointments.
• R&D and materials engineering roles in aerospace, automotive, biomedical devices, electronics, energy and advanced manufacturing companies.
• Materials characterisation and failure analysis experts in testing laboratories and consultancy firms.
• Positions in national laboratories and government research organisations focused on materials discovery, processing and sustainability.
• Technology commercialisation, start‑ups and intellectual property roles where deep materials knowledge supports product development and patents.

Why study at University of Cincinnati

The University of Cincinnati offers a research‑focused environment with strong interdisciplinary links across engineering, medicine and science. The college’s emphasis on experiential learning and industry engagement provides PhD students with collaborative projects, access to modern analytical and fabrication facilities, and connections to regional and national employers.

• Research centres and facilities: access to shared instrumentation for advanced microscopy, spectroscopy, mechanical testing and additive manufacturing supports a wide range of experimental work.
• Industry partnerships: long‑standing relationships with regional manufacturers, healthcare companies and technology firms offer collaborative research opportunities and pathways to applied projects.
• Interdisciplinary culture: the university encourages cross‑departmental supervision and projects that link materials research with biomedical engineering, electronics, and manufacturing systems.
• Graduate support: doctoral students can access mentoring, professional development, teaching experience and funding through assistantships and competitive fellowships.