University of Cincinnati

What you'll study

The master's programme combines core coursework, elective modules and a substantial research or project component. Core topics develop a foundation in thermodynamics, kinetics and the mechanical, electrical and thermal properties of metals, ceramics, polymers and composites. Students choose electives to focus on areas such as biomaterials, electronic/optical materials, nanomaterials, materials characterisation and materials processing.

• Core modules (examples): Materials Thermodynamics and Kinetics; Mechanical Behaviour of Materials; Materials Characterisation and Analysis; Computational Materials Science.
• Electives (examples): Biomaterials and Medical Devices; Polymer Science and Engineering; Electronic and Optical Materials; Nanomaterials and Nanotechnology; Corrosion and Surface Engineering; Advanced Composites.
• Laboratory and practical work: Transmission and scanning electron microscopy, X‑ray diffraction, mechanical testing, thermal analysis and spectroscopy techniques.
• Research or project: Options typically include a thesis-based programme involving original research supervised by faculty, or a project-based route with an industry-focused capstone project. Research themes at the university often span additive manufacturing, materials for energy, biomaterials and materials reliability.
• Programme structure: The degree is modular and flexible to accommodate full‑time and part‑time students; it balances required graduate-level courses with independent research, seminars and professional development activities.

Entry requirements

Applicants are normally expected to hold a bachelor's degree in materials engineering, mechanical engineering, chemical engineering, physics, chemistry or a closely related field from a recognised institution. Strong performance in relevant undergraduate coursework — such as materials science, thermodynamics, solid mechanics and laboratory methods — is important.

• Academic background: Undergraduate degree in a relevant technical or scientific discipline.
• Transcripts and references: Official transcripts and at least two academic or professional references are typically required.
• Graduate tests and English language: Some applicants may be asked to provide GRE scores; international applicants whose first language is not English must demonstrate proficiency through an approved English language test or equivalent evidence.
• Research/professional experience: Research experience, relevant internships or industry experience strengthen an application, particularly for thesis or funded research positions.
• Statement of purpose: A clear statement outlining research interests, career goals and fit with the department and potential faculty supervisors is normally required.

Career prospects

Graduates from the materials engineering master's programme enter a wide range of industries and roles where materials selection, processing and characterisation are key. Typical career directions include materials engineer, failure analysis engineer, process development engineer, quality and reliability engineer, product development scientist and R&D engineer.

• Industry sectors: aerospace, automotive, medical devices, electronics and semiconductors, energy and renewable technologies, chemical processing and advanced manufacturing.
• Roles in national laboratories and government research agencies that focus on materials performance, sustainability and safety.
• Further study: many graduates continue to PhD programmes or take on technical leadership and management positions after gaining industry experience.

Why study at University of Cincinnati

The University of Cincinnati offers an established materials engineering programme with strengths in applied research and strong connections to regional and national industry. The university emphasises cooperative education and industry collaboration, providing opportunities for applied projects, internships and partnerships with manufacturers and research centres.

• Research infrastructure: Access to advanced instrumentation and shared facilities for electron microscopy, X‑ray analysis, mechanical testing and thermal characterisation.
• Industry engagement: Proximity to a diverse manufacturing and engineering base supports internships, co‑op placements and industry‑sponsored research projects.
• Faculty expertise: Faculty conduct research across biomaterials, nanotechnology, additive manufacturing, materials for energy and reliability, offering a range of supervisory expertise for thesis students.
• Career support: The university provides career services, networking events and employer relations to help students transition into technical and research roles.