University of Michigan

What you'll study

The PhD programme combines advanced coursework, qualifying examinations and an extended original research project culminating in a doctoral dissertation. Core topics you will encounter include thermodynamics and kinetics of materials, crystallography and defects, phase transformations, mechanical behaviour of materials, materials characterisation techniques (electron microscopy, X-ray methods, spectroscopy), polymer, ceramic, metal and composite materials, and multi-scale modelling and simulation.

Students normally take a programme of advanced elective courses tailored to their research focus. Typical modules and subject areas include:

• Advanced Materials Thermodynamics and Kinetics — phase equilibria, diffusion, nucleation and growth.
• Physical Metallurgy and Mechanical Behaviour — deformation mechanisms, fracture, fatigue and high-temperature behaviour.
• Electronic and Photonic Materials — semiconductors, thin films, and optoelectronic materials.
• Polymers and Soft Materials — polymer physics, processing and biomaterials.
• Materials Characterisation — transmission and scanning electron microscopy, X-ray diffraction, spectroscopy and surface analysis.
• Computational Materials Science — atomistic simulation, phase-field methods, finite-element modelling and data-driven materials discovery.

Research training emphasises experimental design, advanced characterisation, modelling and scientific communication. Students undertake supervised research in faculty laboratories and access campus-wide facilities for fabrication, micro- and nano-characterisation and high-performance computing. The programme typically requires passing qualifying exams and presenting a research proposal before progressing to candidacy.

Entry requirements

Applicants are normally expected to hold a relevant bachelor's or master's degree in materials science and engineering, mechanical engineering, chemical engineering, physics, chemistry or a closely related discipline. Strong academic performance, demonstrated preparedness for graduate study and record of research experience are important factors.

Typical application components include:

• Academic transcripts showing coursework in core materials topics.
• Letters of recommendation (usually three) from academic or professional referees who can speak to research ability.
• Statement of purpose describing research interests and fit with faculty and facilities.
• Curriculum vitae documenting research, publications, presentations and relevant experience.
• English language proficiency test scores for applicants whose first language is not English (where required by the university).

The programme typically admits students with either a master’s or a strong bachelor’s degree; applicants with a bachelor’s degree should demonstrate substantial research preparation. Standardised tests (such as the GRE) may be optional or considered at the department's discretion — check the department admissions guidance for current expectations. Funding decisions and offers are based on the overall strength of the application and availability of research support.

Career prospects

Graduates of the PhD in Materials Engineering pursue a range of careers that leverage deep technical expertise and research skills. Common career paths include:

• Academic research and teaching — postdoctoral positions and faculty appointments in materials science and engineering and related departments.
• Industrial R&D — research scientist, senior engineer or technical lead roles in sectors such as aerospace, automotive, electronics, energy, medical devices and advanced manufacturing.
• National laboratories and government research — research staff roles addressing large-scale materials challenges and national priorities.
• Start-ups and entrepreneurship — technology translation, product development and founding or joining materials-focused start-ups.
• Consulting and intellectual property — technical consulting, standards development and patent-related careers (including patent agents and technical advisors).

PhD graduates are valued for their problem-solving ability, experimental and computational skills, and capacity to lead long-term interdisciplinary projects.

Why study at University of Michigan

The University of Michigan offers a well-established Materials Science & Engineering environment with broad research strengths across metals, ceramics, polymers, electronic materials, biomaterials and computational methods. Students benefit from interdisciplinary collaborations across engineering, physical sciences, medicine and industry partners.

Facilities and resources available to PhD students include advanced materials characterisation laboratories, cleanroom and microfabrication spaces, high-performance computing resources, and access to campus-wide core facilities. The department has an active seminar series, graduate student community and opportunities for interdisciplinary centre and institute engagement.

Doctoral students are typically supported through a combination of research assistantships, teaching assistantships and fellowships, enabling full-time focus on research training. Faculty mentors are active in translating fundamental research into industrial applications and in training students for diverse research and leadership careers.