Materials Science and Engineering
Study of how materials are designed, created, tested, and improved, from metals and polymers to ceramics, composites, semiconductors, and advanced functional materials.
Is this for you?
This degree could suit you if you:
Are interested in how materials work
Enjoy chemistry and physics
Like research and innovation
Want a career in engineering or manufacturing
Are detail-focused
Popular Career Fields
Manufacturing & Production
Research & Academia
Aerospace & Defence
Pharmaceuticals & Biotechnology
Your Personality Might Be:
Scientifically curious
Research & Academia
Innovation-focused
Analytical mind
What is it?
What is Materials Science and Engineering (MSE)?
Materials Science and Engineering (MSE) explores the relationship between a material’s structure, its properties, and how it can be used in real-world applications. It combines chemistry, physics, engineering, and nanoscience to understand and design the materials that make up everything from aircraft components and biomedical implants to microchips, batteries, and sustainable packaging.
You will study how atoms arrange into structures, how these structures determine behaviour, and how materials can be engineered for strength, flexibility, conductivity, durability, sustainability, or novel functions.
MSE is central to modern innovation, enabling technologies such as electric vehicles, renewable energy systems, nanotechnology, biomaterials, and next-generation electronics.
What Study Materials Science and Engineering (MSE)?
If you enjoy chemistry, physics, problem-solving, and understanding how things work at the smallest scale, this degree is an excellent fit. Materials engineers are in growing demand across aerospace, automotive, electronics, energy, healthcare, and manufacturing industries.
Materials Science is at the heart of major global challenges: developing sustainable materials, reducing waste, enabling clean energy, and improving performance in engineering systems. You’ll learn how to create materials that are lighter, stronger, smarter, and more environmentally responsible.
Course Summary
Study of how materials are designed, created, tested, and improved, from metals and polymers to ceramics, composites, semiconductors, and advanced functional materials.
What you'll study
Materials Science and Engineering courses can often cover:
Chemistry, physics, and mathematics for engineers
Atomic and molecular structure of materials
Mechanical behaviour of materials (strength, toughness, fatigue)
Thermodynamics and phase diagrams
Materials processing (casting, forming, additive manufacturing)
Polymers, metals, ceramics, composites, and biomaterials
Electronic and functional materials
Nanomaterials and surface engineering
Materials characterisation (X-ray diffraction, microscopy, spectroscopy)
Failure analysis and testing
Sustainable and green materials
Engineering design and product applications
Later in your degree, you can often specialise in areas such as:
Aerospace materials
Electronic and semiconductor materials
Energy materials (batteries, fuel cells)
Biomaterials and medical device materials
Polymers and advanced composites
Nanotechnology
Sustainable materials and circular manufacturing
Skills You'll Gain
A Materials Science and Engineering degree builds strong scientific and engineering skills, including:
Materials characterisation – analysing structure using microscopy and spectroscopy
Mechanical and thermal analysis – understanding behaviour under stress, heat, or load
Processing and manufacturing – shaping and designing materials for real applications
Materials modelling and simulation – predicting behaviour and performance
Failure analysis – diagnosing why materials break or degrade
Laboratory problem-solving – using scientific methods to investigate unknowns
Communication and teamwork – essential for engineering and research environments
Materials characterisation – analysing structure using microscopy and spectroscopy.
Mechanical and thermal analysis – understanding behaviour under stress, heat, or load.
Processing and manufacturing – shaping and designing materials for real applications.
Materials modelling and simulation – predicting behaviour and performance.
Failure analysis – diagnosing why materials break or degrade.
Explore Uni Open Days
Pathways, Placements and Work Experience
CAREERS
Career Pathways
Materials Science graduates are needed across a wide range of industries, including:
Aerospace and automotive engineering
Electronics and semiconductors
Energy technologies (batteries, hydrogen, solar)
Medical devices and biomaterials
Manufacturing and design engineering
Nanotechnology and advanced composites
Environmental and sustainability engineering
Work Experiences & Placements
Many universities offer:
Industrial placements with engineering, aerospace, manufacturing, or energy companies
Internships in R&D labs, materials processing, or product development teams
Opportunities to work with research groups developing advanced materials
These experiences help you build professional skills and insights into how materials shape real industries.
Salary Profile
Coming soon
Qualifications, Personal Satement, What to do Next?
AM I ELIGIBLE?
Entry Requirements
A-levels or equivalent including Maths and at least one Science (Physics or Chemistry preferred). Many universities prefer Maths plus two Sciences.
Personal Statement Tips
Show curiosity about why materials behave the way they do.
Mention any experience with chemistry, physics, laboratory work, or engineering projects.
Reflect on problem-solving, hands-on investigation, and analytical strengths.
Highlight examples of making, testing, or analysing materials.
What to do Next
Compare courses to see which focus on nanotech, biomaterials, energy materials, or structural materials.
Attend open days or virtual sessions to explore labs and facilities.
Try online tutorials in materials science, chemistry, or engineering maths.
Follow developments in renewable energy materials, advanced composites, and sustainable design.
Wider Reading
Stuff Matters – Mark Miodownik: A fascinating tour of the materials behind everyday objects.
The New Science of Strong Materials – J.E. Gordon: A classic introduction to why materials behave as they do.
The Material World – Ed Conway: How materials shape technology, economics, and society.
The Elements of Power – David S. Abraham: The story of rare metals and the technologies that depend on them.