Michigan Technological University

What you'll study

This programme builds a foundation in mathematics, physics and chemistry before moving into core materials science and engineering topics. Early semesters typically cover calculus, differential equations, general and physical chemistry, mechanics and introductory materials science.

• Core materials topics: structure of materials, phase equilibria and thermodynamics, kinetics of diffusion, mechanical behaviour of materials, materials selection and failure analysis.
• Materials classes and processing: physical metallurgy, ceramics and glass science, polymer science and engineering, composites, heat treatment and manufacturing processes.
• Characterisation and testing: microscopy (optical and electron), X‑ray diffraction, spectroscopy, thermal analysis, mechanical testing and corrosion testing.
• Modelling and computation: materials modelling, materials property databases, and laboratory practice in using computational tools for microstructure‑property relations.
• Design and practicum: project‑based laboratories, materials design electives, and a capstone senior design project that integrates materials selection, processing and testing.

Students have access to hands‑on laboratory activities throughout the curriculum and opportunities for undergraduate research with faculty. Elective options allow specialisation in areas such as biomaterials, electronic and optical materials, energy materials, corrosion and advanced composites.

Entry requirements

Applicants are expected to hold a recognised secondary school certificate with strong preparation in mathematics and science. Typical preparation includes:

• High school or equivalent courses in calculus (or pre‑calculus leading to calculus), physics and chemistry.
• Strong performance in STEM subjects demonstrating readiness for a rigorous engineering curriculum.
• Evidence of problem‑solving and laboratory skills is advantageous; participation in STEM extracurriculars, competitions or research strengthens an application.
• For applicants whose first language is not English, proof of English language proficiency through a recognised test or equivalent is required.

Transfer applicants from community colleges or other institutions are considered; required preparatory coursework in mathematics, physics and chemistry will be assessed for transfer credit.

Career prospects

Graduates enter a wide range of industries where materials performance and processing are critical. Common career paths include:

• Materials engineer or process engineer in sectors such as aerospace, automotive, energy, electronics and defence.
• Research and development roles developing new alloys, polymers, ceramics, composites or coatings.
• Failure analysis and quality assurance, identifying causes of material degradation and recommending corrective actions.
• Manufacturing engineering and production management, optimising processing routes and materials selection for cost and performance.
• Specialist roles in biomaterials, corrosion engineering, surface engineering and additive manufacturing.
• Further study in graduate school (materials science, engineering, or related fields) or professional pathways such as engineering management.

Industry collaborations, internships and cooperative education experiences available through Michigan Tech help students gain applied experience and professional contacts prior to graduation.

Why study at Michigan Technological University

Michigan Technological University has a long history of engineering education with particular strengths in materials and metallurgical disciplines. The university emphasises experiential learning: students benefit from well‑equipped materials laboratories, access to advanced characterisation instruments, and close faculty mentorship.

• Hands‑on facilities: laboratories for microscopy, X‑ray diffraction, mechanical testing, thermal analysis and surface characterisation support both coursework and undergraduate research.
• Research opportunities: active faculty research in areas such as energy materials, electronic materials, corrosion, biomaterials and advanced manufacturing means undergraduates can engage in applied projects.
• Capstone and industry links: senior design projects and partnerships with regional and national companies provide practical project experience and pathways to employment.
• Community and location: the campus environment fosters close collaboration among students and faculty, and the university’s engineering culture supports multidisciplinary work and student organisations related to materials engineering.

These features make Michigan Technological University a strong choice for students who want a rigorous, practice‑oriented education in materials engineering that prepares them for technical careers or further study.