Case Western Reserve University

What you'll study

The programme provides a foundation in mathematics, physics and chemistry before moving into core materials engineering topics. Early-year coursework typically covers calculus, linear algebra, general chemistry, classical mechanics and introductory materials science. Core and advanced modules commonly include:

• Structure of Materials: crystallography, defects, phase diagrams and microstructural evolution.
• Mechanical Behaviour: deformation, fracture mechanics, fatigue and materials testing.
• Thermodynamics and Kinetics: phase transformations, diffusion and phase equilibria.
• Materials Characterisation: microscopy (optical, SEM/TEM), diffraction, spectroscopy and thermal analysis methods.
• Materials Processing: casting, forming, powder metallurgy, thin film deposition and polymer processing.
• Electronic, Magnetic and Optical Materials: semiconductors, dielectrics, magnetic materials and devices.
• Biomaterials: polymer and metal implants, tissue interactions and regulatory considerations (reflecting collaboration with medical research partners).
• Computational Materials Science: modelling and simulation of materials behaviour at multiple length scales.
• Design and Laboratory Projects: team-based design coursework, laboratory rotations and an individual or group capstone project integrating experiment, characterisation and design.

Laboratory work, maker‑space access and project courses are emphasised throughout the degree to build practical skills in materials processing, testing and analysis. Students may also choose elective modules to specialise in areas such as biomaterials, nanomaterials, polymers or corrosion and surface engineering.

Entry requirements

Applicants are expected to have a strong background in mathematics and the physical sciences. Typical preparation includes advanced mathematics (calculus), physics and chemistry at high‑school level or equivalent. Admissions are competitive and assess academic record, recommendation letters, and a demonstrated interest in engineering or materials science. International qualifications are considered on an equivalent basis; applicants whose first language is not English will normally need to meet English language proficiency requirements.

Successful applicants often present additional experiences such as science/engineering projects, laboratory internships, summer research, robotics or relevant extracurricular activities. Transfer students and those with college credit should provide transcripts for evaluation; credit may be awarded for equivalent prior coursework.

Career prospects

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

• Materials engineer or metallurgist in aerospace, automotive, defence and manufacturing firms.
• Process and production engineer focusing on scaling manufacturing, quality and reliability.
• Failure analysis and forensic materials roles investigating performance issues.
• Research and development positions in electronics, energy storage, nanotechnology and polymers.
• Biomedical device and biomaterials engineering, leveraging ties to clinical research and medical device companies.
• Technical consulting, patent law (with additional qualifications), and materials testing laboratory roles.

Many graduates also pursue postgraduate study (master’s or PhD) in materials science, engineering or related disciplines, or enter interdisciplinary fields such as mechanical, chemical or biomedical engineering. The programme’s lab experience and industry connections support internships and co‑op placements that enhance employability.

Why study at Case Western Reserve University

Case Western Reserve University offers materials engineering within a research‑focused engineering school with strong interdisciplinary links across engineering, medicine and science. Students benefit from access to modern characterization facilities, hands‑on laboratory spaces and faculty research groups working in biomaterials, energy materials, nanomaterials and computational materials science.

The university’s location in Cleveland provides proximity to established manufacturing, aerospace and biomedical industries, facilitating internships, collaborative research and job placement. Students can take advantage of cross‑departmental opportunities with clinical partners, research centres and entrepreneurship resources to translate materials research into applied solutions.

Project‑based learning, undergraduate research opportunities and dedicated career services help students build technical skills, professional networks and practical experience relevant to both industry and graduate study.