Michigan State University

What you'll study

The programme combines core science and engineering fundamentals with specialised materials topics. Early study emphasises calculus, physics and chemistry alongside introductory engineering courses. Core materials subjects typically include materials structure and characterization, thermodynamics and kinetics of materials, mechanical behaviour, materials processing, corrosion and degradation, electronic and optical materials, polymer science and biomaterials.

Laboratory and hands-on courses are integrated throughout the curriculum to develop skills in microscopy, mechanical testing, thermal analysis and materials processing methods. Most students also complete a senior design or capstone project that applies materials selection and design principles to a real-world engineering problem, and there are opportunities for undergraduate research with faculty in areas such as composites, nanomaterials, energy materials and additive manufacturing.

Entry requirements

Admissions are based on academic preparation in high school (or equivalent) and demonstrated readiness for a rigorous engineering curriculum. Typical preparation includes strong performance in mathematics (including precalculus or calculus), chemistry and physics. Admissions also consider overall academic record, recommendation letters, and a personal statement outlining interest in materials engineering.

International applicants must demonstrate English language proficiency through an approved test or other university-accepted evidence. Transfer applicants are evaluated based on college-level coursework in mathematics, science and engineering; successful transfer students typically have completed introductory calculus, chemistry and physics courses.

Career prospects

Graduates enter a wide range of industries where understanding and controlling material properties matters. Common roles include materials engineer, process engineer, quality and failure analysis engineer, manufacturing engineer, product development engineer and materials characterization specialist.

Materials engineering graduates find employment in automotive and aerospace supply chains, electronics and semiconductor firms, biomedical device companies, energy and battery sectors, metals and ceramics manufacturers, and in governmental or private research laboratories. Many graduates also pursue graduate study in materials science, engineering, or related fields such as mechanical, chemical or biomedical engineering.

Why study at Michigan State University

Michigan State University offers this programme within a large research university environment that provides access to multidisciplinary faculty and extensive laboratory resources. Students benefit from hands-on teaching labs, opportunities for undergraduate research, and collaborations between materials faculty and industry partners in the region.

MSU's campus environment supports internships and co-op placements through connections across manufacturing, automotive and technology sectors in the Midwest, while career services and engineering student organisations help prepare undergraduates for professional practice or advanced study. The programme emphasises practical problem solving, teamwork and communication skills sought by employers in materials-focused roles.