Mobile menu icon
Mobile menu icon Search iconSearch
Search type

School of Chemistry

Physical periodic table, with elements in test tubes

Inorganic chemistry

Inorganic chemistry at Manchester covers a multidisciplinary array of research topics in molecular chemistry, materials chemistry, and radiochemistry across the entire Periodic Table.

Particular research strengths include:

  • molecular and environmental chemistry of the lanthanides and actinides;
  • molecular magnetism;
  • homo- and heterogeneous catalysis mediated by novel transition metal and main group catalysts;
  • bioinorganic chemistry;
  • the application of advanced spectroscopic and magnetic techniques to probe the electronic structure of metal complexes;
  • supramolecular capsules and functional porous materials.

Examples of our different areas of expertise are listed below.

Analytical techniques for trace radioactive nuclides

Sarah Heath develops analytical techniques for trace radioactive nuclides and control of contaminants in water-cooled nuclear reactor cooling circuits.

D and f-block electronic structure

Floriana Tuna's interests lie in the study of the electronic structure and magnetism of d and f-block complexes, using principally EPR spectroscopy and magnetometry.

Fluorine chemistry

Alan Brisdon develops fluorine chemistry across main group and transition metal boundaries, with a particular emphasis on the synthesis of novel organofluorinated phosphine complexes of transition metals for catalysis.

Lanthanide and actinide complexes

Stephen Liddle focuses on the structure, bonding and magnetism of lanthanide and actinide complexes, with a focus on species containing metal-ligand multiple bonds, as well as the activation and derivatisation of small molecules, such as dinitrogen.

Lanthanide single molecule magnets

David Mills' research involves developing new lanthanide single molecule magnets and probing the covalency of actinide chemical bonding with pulsed EPR techniques.

Richard Layfield investigates lanthanide single molecule magnets and transition metal complexes for use in catalysis, for example hydrophosphination.

Molecular and electronic structure of coordination complexes

David Collison investigates the molecular and electronic structure of coordination complexes as models for biological systems, with a particular emphasis on the use of EPR spectroscopy.

Molecular magnetism and quantum information

Eric McInnes has broad interests in studying molecular magnetism for applications in quantum information processing and storage, with a particular focus on studying - and f-block complexes with EPR spectroscopy and magnetometry.

Novel main group electrophiles

Michael Ingleson researches the fundamental design and application of novel main group electrophiles and inexpensive transition metals to stoichiometric organic transformations, catalysis and photo-active polymers and materials.

Novel photoactive transition metal

Benjamin Coe explores the synthesis of novel photoactive transition metal and organic compounds, with an emphasis on non-linear optical, electro-optic modulation and dye applications.

Radionuclide biogeochemistry

Gareth Law researches radionuclide biogeochemistry, waste disposal, contaminated land management and nuclear forensics, with a particular focus on using X-ray absorption techniques.

Radionuclide microbial transformations

Francis Livens investigates microbial transformations of radionuclides and mineral surface reactions.

Louise Natrajan investigates microbial transformations of radionuclides, as well as new spectroscopic techniques for finger-printing actinide ion speciation in solution.

Porous materials

Sihai Yang researches the development of novel, functional porous materials for applications in catalysis, biomass utilisation, energy storage, separations and conductivity.

Protein stabilising

Using supramolecular chemistry, Imogen Riddell develops novel encapsulation methods to stabilise proteins and probe how biomolecules interact with synthetic constructs.