Purdue University

What you'll study

The curriculum builds a foundation in mathematics, physics and chemistry before progressing to core materials topics and engineering practice. Early courses typically cover thermodynamics, calculus-based physics, general and physical chemistry, and introductory materials science. Core materials modules address crystallography, phase equilibria and phase transformations, diffusion and kinetics, mechanical behaviour of materials, materials characterisation techniques (microscopy and spectroscopy) and materials processing for metals, polymers, ceramics and composites.

Laboratory and practical components are central: students undertake multiple hands-on lab courses to develop skills in microstructural characterisation, mechanical testing, thermal analysis and fabrication methods. The programme usually includes computational and modelling modules that introduce materials simulations and data analysis, plus coursework in materials selection and design.

In the later years students take advanced electives such as electronic and optical materials, biomaterials, corrosion and surface engineering, nanomaterials, and high‑temperature materials. Most students complete a senior design project or capstone that integrates experimental work, simulation and design, and there are strong opportunities for undergraduate research and industry internships.

Entry requirements

Applicants are expected to have a strong background in mathematics and science. Typical preparation includes high school calculus (or equivalent), high school physics and chemistry. Admissions decisions consider academic record, preparation in STEM subjects, personal statement and any relevant extracurriculars or project experience. International qualifications such as IB, A‑levels or country‑equivalent secondary diplomas are accepted when they demonstrate strength in mathematics and sciences.

Prospective students who have taken advanced placement (AP) or other college‑level courses in calculus, physics or chemistry may receive credit or placement into higher‑level courses; check Purdue's admissions and department guidance for specific policies. Candidates with non‑traditional backgrounds may be advised to complete prerequisite coursework prior to entry.

Career prospects

Graduates enter a wide range of industries where materials performance and processing are central. Common career roles include materials engineer, process or manufacturing engineer, quality and reliability engineer, failure analysis engineer, product development engineer and materials scientist. Employers span aerospace and defence, automotive, semiconductor and electronics, energy and renewables, biomedical devices, advanced manufacturing and consulting firms.

Many graduates pursue further study such as master's or PhD programmes in materials science, engineering, or related fields, or combine the degree with business or professional qualifications. The programme’s laboratory training and opportunities for internships and undergraduate research support employability in both industrial and research settings.

Why study at Purdue University

Purdue has a well‑established engineering faculty with dedicated materials engineering facilities and close connections to industry and research centres. Students benefit from hands‑on laboratory infrastructure, opportunities for interdisciplinary collaboration, and access to research centres focused on nanotechnology, advanced manufacturing and energy materials.

The university provides structured support for internships, cooperative education and career development through its engineering career services, helping students secure practical experience and employer connections. Undergraduate research opportunities and capstone projects allow students to work alongside faculty on real problems, preparing them for technical careers or graduate study. In addition, Purdue’s alumni and industry networks offer strong pathways into regional, national and international employers.