University of Michigan

What you'll study

The programme combines foundational engineering, mathematics and physical science courses with specialised materials modules and hands-on laboratory experience. In early years you will typically take calculus, differential equations, physics, general chemistry and introductory engineering courses that establish the analytical tools required for materials study. Core materials topics usually include crystallography and atomic structure, thermodynamics and phase equilibria, diffusion and kinetics, mechanical behaviour of materials, and materials characterisation techniques.

Later-year and elective modules commonly explore classes of materials and applications, such as metals and alloys, ceramics and glasses, polymers and composites, electronic and optical materials, and biomaterials. Coursework emphasises laboratory practice and measurement methods (metallography, microscopy, spectroscopy, mechanical testing), computational modelling of materials behaviour, and materials processing and manufacturing methods.

The curriculum also typically features a team-based capstone design project where students apply materials selection, testing and design-for-manufacture principles to an open-ended engineering problem. Opportunities for undergraduate research, industry-sponsored projects and technical electives allow specialisation in areas such as nanomaterials, additive manufacturing, energy materials, corrosion and surface engineering, or materials for biomedical devices.

Entry requirements

Applicants are expected to demonstrate strong preparation in mathematics and science. Typical preparation includes high-school calculus, physics and chemistry, with a record of high academic achievement across STEM subjects. Successful candidates often show evidence of problem-solving ability and practical experience, through advanced STEM coursework, laboratory work, research projects, relevant extracurricular activities or internships.

Admission to the College of Engineering is competitive and considers the whole application, including academic transcripts, letters of recommendation, and personal statements. International applicants should demonstrate comparable secondary credentials and English language proficiency. Specific grade thresholds, testing and credential requirements are published by the university and may vary; prospective applicants should consult the University of Michigan admissions pages for current guidance.

Career prospects

Graduates with a B.S. in Materials Science and Engineering are prepared for technical roles in a wide range of sectors. Common entry-level positions include materials engineer, process or manufacturing engineer, failure analysis engineer, quality engineer, corrosion engineer and product development or R&D engineer. Employers span aerospace, automotive, energy and utilities, electronics and semiconductors, biomedical and medical devices, consumer products and advanced manufacturing.

Many graduates move into roles involving materials selection and specification, process optimisation, testing and characterisation, or technical sales and consulting. The degree also provides a strong foundation for graduate study (MSE, MS, PhD) or for professional programmes in business, law or medicine where deep technical knowledge of materials is an asset.

Why study at University of Michigan

The University of Michigan College of Engineering offers a materials programme with access to extensive research facilities and multidisciplinary collaborations. Undergraduates can take advantage of specialised laboratories and centres that support materials research and education, including nanofabrication and characterization facilities, composite and materials processing labs, and resources for biomaterials and energy-related materials.

The department emphasises undergraduate research, industry engagement and experiential learning—students often work alongside faculty on funded research projects, secure internships with regional and national employers, and participate in capstone design with real-world sponsors. The university’s career services, alumni network and strong ties to industry support professional development and job placement. Situated in Ann Arbor, the programme also benefits from a vibrant engineering community and proximity to major industrial and technological centres for internship and employment opportunities.