University of Leicester

What you'll study

This MChem covers the principles and practice of medicinal chemistry from molecular design through to biological evaluation. Teaching combines advanced organic synthesis, structure–activity relationships, computational methods and pharmacology, with substantial laboratory experience and a sustained research project.

• Core synthetic chemistry: advanced techniques in multi-step organic synthesis, reaction mechanisms, stereocontrol and scale-up concepts used to make drug-like molecules.
• Drug design and structure–activity relationships (SAR): lead identification and optimisation, target selection, ligand–receptor interactions, and case studies of successful drug programmes.
• Analytical and characterisation techniques: hands-on use of NMR spectroscopy, mass spectrometry, chromatography and X-ray crystallography for compound identification and purity assessment.
• Computational and cheminformatics methods: molecular modelling, docking, QSAR and in silico ADMET profiling used to prioritise and optimise compounds.
• Pharmacology and biophysical methods: basic principles of pharmacokinetics, pharmacodynamics, assay design and biophysical approaches to studying ligand–target interactions.
• Professional and transferable skills: data handling, laboratory safety, scientific communication, teamwork and project management aimed at research and industrial environments.
• Research project: an extended independent research project under academic supervision, typically involving design, synthesis and biological evaluation of compounds relevant to a therapeutic problem.
• Optional modules: students may choose from topics such as natural product chemistry, chemical biology, medicinal chemistry of specific target classes, or industrial placement modules where available.

Entry requirements

Applicants are normally expected to have strong qualifications in chemistry or a closely related subject. Typical entry routes include satisfactory A-level (or equivalent) performance in chemistry with additional subjects that demonstrate quantitative skills, or an appropriate UK undergraduate degree in chemistry or a related discipline for advanced entry.

International applicants should hold qualifications equivalent to the UK requirements and demonstrate proficiency in English. Selection also considers practical laboratory experience and motivation for a career in medicinal chemistry. If you have non-standard qualifications or relevant industrial experience, the admissions team can advise on eligibility.

Career prospects

Graduates from an MChem in Medicinal Chemistry are well placed for roles across the drug discovery and pharmaceutical sectors. Common career paths include:

• Medicinal chemist in pharmaceutical or biotechnology companies, working on lead discovery and optimisation.
• Research scientist roles in contract research organisations (CROs) and specialist service providers (synthesis, analytics, ADMET screening).
• Interdisciplinary positions bridging chemistry and biology, such as chemical biology, assay development or biophysical characterisation.
• Regulatory affairs, patent science and technical consultancy where chemical expertise is required.
• Further academic research, including PhD study in medicinal chemistry, chemical biology or related areas leading to careers in research and academia.

Why study at University of Leicester

The University of Leicester offers an integrated curriculum that draws on active research groups in chemistry, pharmacology and biological sciences, giving students exposure to contemporary drug discovery problems. Teaching emphasises hands-on laboratory work in modern synthetic and analytical facilities, including access to high-field NMR, mass spectrometry and X-ray crystallography for characterisation.

Interdisciplinary collaboration is a feature of the programme, with opportunities to work alongside pharmacologists and structural biologists, and links with regional industry and research networks support employability. Small-group teaching, project supervision by research-active staff and dedicated support services help students develop the technical skills and professional attributes sought by employers and postgraduate programmes.