Keele University

What you'll study

The programme delivers a foundation in the main chemical disciplines (organic, inorganic, physical and analytical chemistry) in the early years, progressively integrating medicinal chemistry topics that focus on drug design, synthesis and evaluation. Practical laboratory work is a significant component throughout, developing synthetic technique, spectroscopic characterisation, analytical method development and data interpretation.

• Core chemistry modules: structure and bonding, thermodynamics and kinetics, spectroscopy and structural determination, organic reaction mechanisms, inorganic chemistry and transition metal chemistry.
• Medicinal chemistry and drug discovery modules: principles of drug design, structure–activity relationships (SAR), medicinally relevant synthetic methods, bioorganic chemistry, prodrugs and drug metabolism, and an introduction to pharmacology and toxicology.
• Analytical and computational skills: chromatographic and spectroscopic analysis (NMR, MS, IR, UV–Vis), method validation, cheminformatics and molecular modelling techniques used in ligand–receptor studies.
• Research project: an independent laboratory-based project supervised by academic staff, often addressing a medicinal chemistry problem such as synthesis of novel compounds, optimisation of lead molecules, or development of analytical assays.

Modules are delivered through lectures, small-group tutorials and substantial practical laboratory classes. Assessment typically combines written examinations, coursework, laboratory reports and the final-year research project. Where available, students may have the opportunity to take an optional placement year in industry or undertake a period of study abroad to gain additional experience.

Entry requirements

Applicants should normally have prior attainment in chemistry and strong performance in related sciences or mathematics. Typical successful applicants will hold qualifications equivalent to standard UK A-levels or the International Baccalaureate, with chemistry as a required subject. Other recognised qualifications and contextual factors are considered; applicants whose first language is not English will need to meet the university's English language requirements.

Offers will specify the precise combination and level of qualifications required. Applicants without direct chemistry qualifications may be considered if they have substantial relevant experience or completed recognised access/foundation programmes. Check the university's official pages for exact equivalencies and accepted qualifications.

Career prospects

Graduates leave with a broad and transferable skill set valued across science and industry: practical laboratory competence, problem solving, data analysis and scientific communication. Typical career destinations include roles in pharmaceutical and biotechnology companies (research and development, medicinal chemistry, analytical development), contract research organisations, chemical and agrochemical industries, and regulatory or quality-control laboratories.

Other common pathways are further study (MSc, postgraduate Diploma, or PhD) leading to specialised research careers, or careers that use scientific training such as patent law (with further legal training), science policy, technical sales, and teaching. The degree also provides a strong foundation for interdisciplinary work at the interface of chemistry and life sciences.

Why study at Keele University

Keele offers a campus-based experience with a focus on small-group teaching and strong staff–student interaction. The chemistry department provides modern teaching laboratories and research-active groups, allowing undergraduates to gain hands-on experience and to be supervised on meaningful research projects. Keele emphasises employability and student support, with dedicated careers and placement services to help source industrial experience and graduate opportunities.

The university promotes an interdisciplinary culture: chemistry students benefit from collaborations with life-science and pharmacy-related research, giving particular relevance to medicinal chemistry topics. Smaller cohort sizes and integrated tutorial support help students develop laboratory confidence and scientific communication skills valued by employers and postgraduate programmes.