Keele University

What you'll study

This integrated masters programme brings together the fundamentals and advanced topics of chemistry with the mathematical tools needed to model, analyse and solve chemical problems. Early stages establish core knowledge in organic, inorganic, physical and analytical chemistry alongside introductory mathematics modules covering calculus, linear algebra and statistics.

As you progress you study more specialist chemistry topics such as advanced organic synthesis, coordination and organometallic chemistry, materials chemistry, chemical kinetics, spectroscopy and thermodynamics. Mathematical content advances to differential equations, numerical methods, mathematical modelling, data analysis and computational methods relevant to chemical problems. Practical laboratory training runs throughout the course, emphasising advanced experimental technique, analytical instrumentation and safe practice.

The final stages centre on independent research. Typical components include a substantial research project or dissertation in a chemistry area (often incorporating quantitative or computational modelling), advanced modules in computational chemistry or molecular simulation, and options that let you tailor the degree toward materials, pharmaceutical chemistry, environmental chemistry or theoretical/physical chemistry.

• Core chemistry modules: organic, inorganic, physical and analytical chemistry
• Mathematics modules: calculus, linear algebra, differential equations, statistics and numerical methods
• Advanced topics: spectroscopy, kinetics, thermodynamics, materials chemistry and computational chemistry
• Practical work: multi‑week laboratory classes, instrument training (NMR, mass spectrometry, chromatography) and project work
• Research project/dissertation: extended laboratory, computational or hybrid project supervised by academic staff
• Optional modules: materials, sustainable chemistry, medicinal chemistry, modelling, data analysis and machine learning for chemical data

Entry requirements

Applicants are normally expected to have strong qualifications in chemistry and mathematics. Typical offers require A‑level (or equivalent) passes with chemistry and mathematics as principal subjects. Further Mathematics is highly desirable but not always essential. Alternative qualifications such as a BTEC or access diploma can be considered when combined with appropriate A‑level or post‑16 mathematics and chemistry content.

International qualifications such as the International Baccalaureate are also recognised; successful applicants usually demonstrate a strong overall profile with higher level chemistry and a significant mathematics component. Applicants whose first language is not English will need to meet Keele’s English language requirements.

Where applicants have non‑standard backgrounds, the admissions team will consider prior study and relevant experience; applicants are encouraged to contact the School to discuss individual circumstances.

Career prospects

Graduates of this integrated masters develop a combination of laboratory skills, chemical knowledge and quantitative competence that is attractive to employers across many sectors. Common career pathways include:

• Research and development roles in pharmaceuticals, fine chemicals, polymers and materials
• Analytical and quality assurance positions in industry and contract laboratories
• Careers in energy, environmental science and sustainable chemistry
• Computational chemistry, modelling and data science roles where chemical insight and numerical skills are needed
• Further study: PhD research in chemistry or interdisciplinary areas, or taught postgraduate qualifications
• Technical roles in instrumentation, regulatory affairs, patenting and science policy; teaching at secondary level (with suitable teacher training)

The integrated masters degree particularly suits those aiming for research careers or roles that require a high level of quantitative and computational ability in addition to practical chemical expertise.

Why study at Keele University

Keele offers a campus‑based experience with small‑group teaching and accessible academic staff, which supports close supervision of laboratory work and projects. The School of Chemistry has active research groups working across catalysis, materials chemistry, sustainable/process chemistry and molecular modelling, providing opportunities for final‑year projects that connect to current research themes.

Facilities include dedicated teaching laboratories and access to research instrumentation such as NMR, mass spectrometry, X‑ray diffraction and modern chromatography suites. Keele emphasises interdisciplinary training and student support, with skills development in scientific communication, data analysis and professional practice embedded in the curriculum.

Students benefit from industry links and employability support that help translate practical and numerical skills into graduate roles or postgraduate research. The integrated masters structure also gives an extended research component compared with a standard undergraduate degree, making it a strong preparation for scientific careers that demand both laboratory competence and quantitative expertise.