Materials Science

About the Specialism

In this specialism, you will develop a foundation in the principles of materials chemistry and physics, while also addressing the real-world challenges of sustainability, innovation, and technological design. You will gain core knowledge in chemistry, physics, and mathematics and explore topics such as nanomaterials, polymers, electronic and structural materials, and sustainable materials design, alongside opportunities to develop communication and entrepreneurial skills. This specialism is ideal for students interested in the development and application of materials in contexts such as clean energy, advanced manufacturing, and emerging technologies—bridging scientific understanding with societal impact and innovation.

Your learning on this specialism will include some laboratory-based practical work.

You will study modules in the following subject areas

Chemistry, Physics

Specialism Structure

In year 2, you will study core modules in quantum physics as well as physical and inorganic chemistry and a range of optional physics and chemistry modules. In year 3, you will choose from a range of advanced chemistry and quantum physics modules as well as laboratory modules and undertake an interdisciplinary research project on a topic related to the specialism.

Additional Requirements

An A-level (or equivalent) in Chemistry and Physics is required for this specialism. To select this specialism you must choose the first year foundation modules in Chemistry and Physics.

Employability and Skills

Graduates will develop interdisciplinary expertise in the design, characterisation, and application of materials, with practical skills in testing, modelling, and performance analysis relevant to research and industry.

Graduates will apply scientific and technical knowledge to address challenges in materials processing, manufacturing, and sustainable design, with experience in areas such as nanomaterials, electronic materials, and catalysis.

Employment areas will include careers in advanced manufacturing, clean energy, materials innovation, or further academic research—bridging scientific knowledge with real-world technological and societal impact.