Boise State University

What you'll study

The PhD combines advanced coursework with an independent research thesis. Early in the programme you will take graduate-level classes to build depth in materials fundamentals and analytical techniques, then focus on an original research project supervised by a faculty advisor.

• Core topics: thermodynamics and kinetics of materials, mechanical behaviour of materials, phase transformations, and materials processing.
• Characterisation & instrumentation: electron microscopy, X-ray diffraction, spectroscopy, and surface analysis techniques taught through hands-on laboratory modules and the university's materials characterisation facilities.
• Specialist areas: electronic and semiconductor materials, polymers and composites, biomaterials, nanomaterials and thin films, additive manufacturing and metallurgy.
• Computational methods: modelling of materials behaviour, materials informatics and simulation tools used to complement experimental work.
• Research components: qualifying/ comprehensive exam, development of a research proposal, regular progress seminars, and completion and defence of a written doctoral dissertation.
• Collaborations: opportunities for interdisciplinary projects and industry- or national-laboratory-linked research with local partners and research centres.

Entry requirements

Applicants are normally expected to hold a relevant master’s degree (or equivalent) in materials science/engineering, mechanical engineering, chemical engineering, physics, or a closely related field with strong preparation in core materials topics and laboratory methods. Candidates with an exceptional bachelor’s degree and significant research experience may also be considered.

• Academic record: strong undergraduate and graduate transcripts showing advanced coursework in materials-related subjects.
• Research experience: evidence of research potential such as publications, conference presentations, or a detailed research project is highly desirable.
• Application documents: curriculum vitae, statement of research interests, letters of recommendation, and a proposed research direction.
• English language: for international applicants, acceptable proof of English proficiency is required (standardised tests are commonly accepted).
• Funding and assistantships: admission decisions may be linked to available research or teaching assistantships; applicants are advised to contact potential faculty supervisors to discuss openings and fit.

Career prospects

Graduates of the PhD in Materials Engineering pursue careers across academia, industry and government. The programme emphasises both fundamental and applied research skills sought by employers.

• Academic research and teaching: positions as university faculty, postdoctoral researchers and principal investigators.
• Industry R&D: roles in materials development, failure analysis, process engineering and product innovation in sectors such as semiconductors, energy storage, aerospace, automotive and medical devices.
• National laboratories and government research: scientific and technical staff positions at federal labs and research institutes focused on large-scale materials challenges.
• Technical leadership and entrepreneurship: technology transfer, start-up formation, and leadership roles in product development and engineering management.

Why study at Boise State University

Boise State offers a hands-on, collaborative research environment with access to advanced materials characterisation facilities and multidisciplinary engineering centres. The university is geographically and strategically positioned near industry partners and national laboratories, enabling applied research projects and internships.

• Facilities and instrumentation: access to modern microscopy, spectroscopy and fabrication labs that support both experimental and applied materials research.
• Industry and national-lab links: opportunities for collaborative projects with local high-tech companies and nearby national research laboratories which can enhance translational research and employment pathways.
• Interdisciplinary culture: strong connections across engineering, physical sciences and biomedical fields that allow students to pursue cross-cutting topics such as energy materials, biomaterials and nanoelectronics.
• Mentored research training: close supervision and a cohort of faculty active in peer-reviewed research, providing mentorship for thesis work, grant writing and professional development.