Georgia Institute of Technology

What you'll study

The programme combines advanced coursework with sustained original research under the supervision of a faculty advisor. Early stages typically include core and elective graduate courses that build depth in areas such as thermodynamics and kinetics of materials, phase transformations, materials characterization techniques, computational materials science, and materials processing.

• Foundational topics: advanced thermodynamics and kinetics, mechanical behaviour of materials, defect physics, and materials design principles.
• Characterisation and instrumentation: electron and scanning probe microscopies, X-ray and spectroscopy methods, and in situ/operando techniques.
• Specialist streams: electronic and photonic materials, structural alloys and ceramics, polymers and soft materials, biomaterials and tissue engineering, nanostructured materials, and energy materials (batteries, fuel cells, photovoltaics).
• Computational methods: density functional theory, molecular dynamics, phase-field modelling and multiscale approaches to link processing, structure and properties.
• Professional development: scientific communication, research ethics, and opportunities to gain teaching experience as a graduate teaching assistant.

Degree structure typically involves an initial period of coursework and laboratory rotations (if pursued), a qualifying or preliminary examination to demonstrate readiness for independent research, a period of concentrated doctoral research, candidacy admission, and a final written dissertation and oral defence. Students work closely with faculty on funded research projects and are expected to publish in peer-reviewed journals.

Entry requirements

Applicants are normally expected to hold a bachelor’s or master’s degree in materials science and engineering, mechanical engineering, chemical engineering, physics, chemistry or a closely related field, with strong undergraduate preparation in mathematics, thermodynamics, solid-state physics and materials laboratory courses. A relevant master’s degree can be advantageous but is not strictly required for all applicants.

• Academic transcripts showing strong performance in relevant coursework.
• A research-oriented curriculum vitae or résumé outlining laboratory experience and technical skills.
• A personal statement describing research interests, prior research experience and proposed area of doctoral study.
• Letters of recommendation, typically from faculty or research supervisors who can assess research potential.
• Proof of English proficiency for international applicants where required by the university (e.g. TOEFL or IELTS), unless exempt by prior study in English.

Standardised tests (such as the GRE) are subject to change in institutional policy; applicants should consult the programme’s admissions webpages for current test requirements and any additional application materials. Admission is competitive and decisions also consider fit with faculty research interests and the availability of faculty supervision and funding.

Career prospects

Graduates of the PhD in Materials Engineering go on to careers across academia, industry, government laboratories and entrepreneurship. Typical career paths include:

• Academic research and faculty positions, leading independent research groups and teaching at universities.
• Research and development roles in industries such as aerospace, automotive, semiconductor and microelectronics, energy and battery technology, medical devices and biomaterials, and advanced manufacturing.
• Positions in national laboratories and government research organisations focused on large-scale materials challenges and advanced characterisation facilities.
• Technical leadership and multidisciplinary project management in corporate R&D, as well as roles in technology transfer and startup formation based on new materials discoveries.

Doctoral training emphasises problem formulation, experimental and computational skills, and written and oral communication, preparing graduates to lead technology development and interdisciplinary research teams.

Why study at Georgia Institute of Technology

Georgia Tech’s School of Materials Science and Engineering is embedded within a major engineering research university with a strong culture of interdisciplinary collaboration. Students benefit from working with faculty who lead research programmes in areas such as nanomaterials, electronic and photonic materials, structural materials, biomaterials and energy materials.

• Access to extensive research infrastructure and shared facilities for nanofabrication, electron microscopy and advanced materials characterisation.
• Opportunities to collaborate with other engineering and science departments, interdisciplinary institutes and regional industry partners in the Atlanta innovation ecosystem.
• Competitive research assistantship and fellowship opportunities that provide financial support while enabling full-time research training.
• A research environment that emphasises translation of fundamental discovery into practical applications, with pathways for industry engagement and entrepreneurship.

Prospective applicants are encouraged to review faculty research profiles and current group projects to identify potential advisors and to contact the programme administration with questions about fit, funding and the application process.