The Advanced Materials MSc at the University of Nottingham is a research‑led programme that develops specialist knowledge of modern materials, their properties, characterisation and processing. It suits science or engineering graduates who want to move into materials research, development or technical leadership roles in industry or academia.
This master’s combines taught modules with a substantial independent research project to give a broad and deep understanding of contemporary materials. You will study the relationships between structure, processing and properties across metals, ceramics, polymers, composites and emerging classes such as nanomaterials and biomaterials.
Applicants are normally expected to hold a UK upper second‑class (2:1) honours degree, or an international equivalent, in materials science, engineering, physics, chemistry or a closely related discipline. Candidates with a lower second‑class (2:2) plus relevant industrial experience or strong postgraduate study may be considered.
Entry also requires evidence of adequate numeracy and laboratory or technical experience appropriate to materials study. International applicants must meet the University's English language requirements; typical evidence is a recognised English test with overall and component scores that meet the School’s thresholds.
Applicants from non‑standard backgrounds are considered on an individual basis; relevant professional experience, portfolio of practical work, or preparatory study can strengthen an application.
Graduates from this programme go on to careers in R&D, materials development, process engineering, quality and failure analysis, manufacturing and product design across sectors such as aerospace, automotive, energy, electronics, biomedical devices and advanced manufacturing. The MSc also provides a pathway to doctoral research and academic careers.
The University of Nottingham offers a research‑intensive environment with access to advanced materials laboratories and characterisation facilities and a multidisciplinary community spanning engineering, physics and chemistry. Teaching is informed by active research groups working on areas such as nanomaterials, functional materials, and materials for energy and healthcare.
Students benefit from opportunities for project work with industrial partners, links to regional and national supply chains, and training in transferable skills valued by employers: experimental techniques, modelling, project management and scientific communication. The campus environment supports collaborative study and access to additional resources including computing facilities and career services.
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