Lynn University

What you'll study

The programme provides a foundation in physical chemistry and solid‑state physics, combined with practical laboratory skills and materials characterisation techniques. Core topics typically include crystal structure and defects, phase diagrams and thermodynamics of materials, mechanical behaviour of solids, corrosion and degradation, polymer science, ceramics and composite materials, and electronic and magnetic materials.

Laboratory and practical classes are a central element: students gain experience with microscopy, X‑ray diffraction principles, thermal analysis, mechanical testing, and basic thin‑film and processing methods. The curriculum usually culminates in a research or capstone project where students apply experimental and analytical skills to a real‑world materials problem.

• Introductory Materials Science and Engineering
• Physical Chemistry for Materials
• Crystallography and Solid State Physics
• Phase Transformations and Thermodynamics
• Mechanical Properties and Failure Analysis
• Polymers, Ceramics and Composites
• Materials Characterisation Techniques (microscopy, spectroscopy, thermal analysis)
• Lab Practicals and Safety
• Capstone Research Project or Industry Internship

Entry requirements

Entry typically requires a high‑school diploma or equivalent with strong achievement in mathematics and the physical sciences (chemistry and/or physics). Applicants are normally expected to demonstrate competence in algebra and calculus foundations. Universities commonly consider overall academic record and may ask for a personal statement outlining interest in materials and relevant experience.

For applicants whose first language is not English, an approved English language qualification is normally required. Mature applicants with relevant work or laboratory experience are also encouraged to apply and may be considered on a case‑by‑case basis.

Career prospects

Graduates with a materials sciences degree enter a wide range of technical and commercial roles. Typical career paths include materials engineer, process or manufacturing engineer, quality and reliability engineer, product development scientist, failure analysis specialist, and roles in coatings, polymers, metallurgy and electronics sectors. The degree also provides a strong foundation for postgraduate study in materials science, engineering, nanotechnology, or allied disciplines such as chemical engineering and physics.

Alumni frequently find positions in manufacturing, aerospace, automotive, biomedical devices, energy and semiconductor industries, as well as technical consulting, testing laboratories and regulatory bodies. The combination of laboratory skills and analytical training is also valued in technical sales and patent or technical writing roles.

Why study at Lynn University

Lynn University emphasises small class sizes and personalised learning, which supports close mentoring in laboratory work and projects. The institution’s focus on experiential education helps students develop hands‑on skills through lab courses, collaborative projects and opportunities to pursue internships with local industry partners.

Students benefit from career services, advising and a curriculum designed to integrate scientific fundamentals with practical problem solving. The interdisciplinary environment allows Materials Sciences students to collaborate with peers across biology, chemistry, physics and engineering‑related programmes, preparing graduates to work effectively in diverse technical teams.