Postgraduate research

Chemistry

Analytical Chemistry

Professor Sergey Piletsky - sp523@leicester.ac.uk 

Molecularly Imprinted Polymers for Biosensing and Theranostics


Dr. Shengfu Yang - sfy1@leicester.ac.uk

Nanotechnology and Spectroscopy based on Superfluid Helium


Professor Andrew Ellis - andrew.ellis@leicester.ac.uk

Laser Spectroscopy and Mass Spectrometry of Molecules, Ions and Clusters in Helium Nanodroplets

  • Exploring superfluid and supersolid effects in helium-tagged molecular ions
  • Using molecule-molecule clusters and complexes using laser spectroscopy in helium nanodroplets to investigate intermolecular forces
  • Using helium nanodroplets to develop spectroscopic signatures of molecules and molecular ions in space
  • Understanding ion-molecule chemistry relevant to astrochemistry using helium droplets and mass spectrometry 
 

Professor Paul Monks - p.s.monks@leicester.ac.uk

Atmospheric Chemistry, Earth Observation Science and Medical Diagnostics


Dr. Elena Piletska - ep219@leicester.ac.uk

Novel Functional Materials and Nanomaterials

Chemical Biology

Dr. Patricia Rodriguez-Macia - prm28@leicester.ac.uk 

Natural and Artificial Metalloenzymes for Energy Conversion

  • Mechanistic investigation of natural metalloenzymes for energy conversion, i.e. hydrogenases (H2 oxidation and production) and CO dehydrogenases (reversible CO2-to-CO conversion), via a combination of spectroscopic, electrochemical, computational and structural methods 
  • Mechanistically-driven design of novel artificial metalloenzymes for green chemistry (i.e., H2 production, CO2 reduction and oxidation reactions) based on natural protein scaffolds
  • Bioinspired de novo designed protein as scaffolds for novel artificial metalloenzymes for green chemistry

Dr. Rama Suntharalingam – k.suntharalingam@leicester.ac.uk 

Metallopharmaceuticals

  • The development of metal-based anti-cancer stem cell agents
  • Polymeric nanoparticles for drug delivery
  • Probing cell death pathways in cancer cells
  • Anti-osteosarcoma small molecules with immunogenic potential
 

Dr. James Hodgkinson - jthodgkinson@leicester.ac.uk

Heterobifunctional Molecules and Chemical Probes

  • The synthesis and biological evaluation of proteolysis targeting chimeras (PROTACs) for the targeted degradation of individual HDAC corepressor complexes
  • The synthesis of novel proximity-inducing heterobifunctional molecules and their mechanism of action studies
  • The synthesis and biological evaluation of novel Antibody-Drug Conjugates (ADCs)

Dr. Richard Hopkinson - richard.hopkinson@leicester.ac.uk

The Chemical Biology of Formaldehyde


Dr. Richard Doveston - r.g.doveston@leicester.ac.uk

Molecular Glues and Cooperativity in Drug Development

  • Molecular glues for 14-3-3 protein-protein interactions
  • Dual ligand cooperativity for targeting Pin1 in cancer
  • Fragment based development of inhibitors for PYCR1 in cancer
  • Covalent protein modification strategies

Professor Steve Bull - sdb45@leicester.ac.uk

Fluorescent Chemical Probes

  • Fluorescent probes
  • Antibody-drug conjugates
  • Cell imaging
  • Antimicrobials
  • Cancer drugs

Dr Phil Ash– philip.ash@leicester.ac.uk

Ultrafast Spectroscopy and Mechanism of Metalloenzymes and Materials for Energy Conversion


Prof. Andrew Hudson - ah242@leicester.ac.uk

Frontier Technologies in Spectroscopy, Imaging, Photonics and Microfluidics for Solving Problems at the Life Science Interface

Materials and Inferfaces

Dr Jake Yang - my216@leicester.ac.uk

Electrochemistry for Real-World Applications and Environmental Monitoring 


Professor Karl Ryder - ksr7@leicester.ac.uk

Electrochemical Deposition and Dissolution Processes; Surface and Interfacial Structure


Professor Rob Hillman -  arh7@leicester.ac.uk

Interfacial Analysis and Imaging

  • Electroactive polymer, metal and metal oxide films 
  • Physical characterisation (spectroscopic, acoustic, X-ray, neutron) of electroactive films 
  • Interfacial design for sensing and energy storage 
  • Latent fingerprint visualisation in forensic science applications 
 

Sustainable Synthesis and Catalysis

Professor Steve Bull – sdb45@leicester.ac.uk

Catalytic Upgrading of Biorenewables

  • Catalytic transformations
  • Biocatalysis
  • Flow chemistry
  • Biorenewable feedstocks
 

Dr Fabrizio Ortu - Fabrizio.ortu@leicester.ac.uk

Synthetic and Catalytic Applications of Earth Abundant Metals

  • Earth abundant elements in synthesis and catalysis
  • Small molecule activation for sustainable synthesis
  • f-Block chemistry and molecular magnetism

Dr Alex Pulis - a.pulis@leicester.ac.uk

Novel Synthetic Methodology


Dr Qun Cao - qc52@leicester.ac.uk

Single Atom Catalysts for Fine Chemical Synthesis

  • Development of Novel Material Synthetic Strategies: Explore innovative approaches for the synthesis of transition metal-based heterogeneous catalysts.
  • Creation of Electro/Photocatalytic Cross-Coupling Strategies: Develop entirely new electrochemical and photocatalytic methods for C-C and C-N bond cross-coupling as proof-of-concept demonstrations, application to pharmecetical synthsise (training e.g., GC, GC-MS, NMR, XRD).
  • Advanced Characterization and Mechanistic Studies: Characterize heterogeneous catalysts and conduct mechanistic investigations using advanced characterization techniques such as STEM, SEM, XPS, operando XAS, and synchrotron-based M√∂ssbauer spectroscopy.

Dr Sandy Kilpatrick - sandy.kilpatrick@leicester.ac.uk

Bioinspired Catalytic Small Molecule Activation


Dr Alison Stuart - alison.stuart@leicester.ac.uk

Novel Methodology for Fluorination of Organic Small Molecules

  • Developing novel synthetic methodology for the fluorination of organic molecules
  • Performing mechanistic studies to understand and control our reactions
  • Designing new hypervalent iodine reagents 
  • Investigating new strategies for enantioselective fluorination

Dr Greg Solan - gas8@leicester.ac.uk

Development of Main Group and Transition Metal Catalysts

  • Next generation catalysts based on earth abundant transition metals
  • Unlock the potential of functional ligands to enhance catalyst performance
  • Apply methodology to industry-specific targets
  • Address key sustainable challenges (e.g., convert CO2 to biofuels)
 

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