About the Project
Tuberculosis (TB) is a major global health challenge. TB is now the leading cause of death from a single infectious agent worldwide killing more people than HIV and malaria combined. As the number of drug-resistant TB infections escalates and the current front-line drugs become ineffective we urgently need to develop new strategies to control the TB epidemic. In order to develop new interventions we need to understand the fundamental biology and biochemistry of Mycobacterium tuberculosis – the causative agent of TB.
Mycobacterium tuberculosis (Mtb) is a very unusual pathogen and has evolved an incredible ability to survive in the human host for decades, capable of reactivating to trigger TB infection. However, our knowledge of the nutrients/energy sources that M. tuberculosis uses and the mechanisms that are involved in their uptake and subsequent metabolism is poorly understood.
Research in our laboratory is focused on understanding the molecular mechanisms that Mtb uses to obtain and process these essential nutrients. We are then using this fundamental information to develop routes and strategies to target these processes to develop new anti-tubercular therapeutics/diagnostics.
The main themes in our lab are: 1) determining the molecular mechanisms of enzymes involved in key transport and metabolic pathways in Mtb 2) development of new chemical tools and probes to understand the Mtb pathogen, 3) discovering new approaches that can either kill and/or detect Mtb
We use a multidisciplinary approach that includes biochemistry, biophysics, structural biology, microbiology and molecular genetics, synthetic chemistry and chemoenzymatic methods, analytical chemistry and molecular modelling. Overall this multidisciplinary approach uses the latest techniques to probe important, fundamental mechanisms of this major global pathogen. Some examples of our recent exciting findings are listed in the references below. Unravelling these essential processes will lead to valuable new insights into what Mtb ‘eats’ and how it uses these energy sources that can be exploited to develop new molecules with novel modes of action that either kill Mtb or can be used for detection/diagnosis.
BBSRC Strategic Research Priority: Understanding the Rules of Life: Microbiology & Structural Biology
Techniques that will be undertaken during the project:
• Molecular biology (cloning, mutagenesis)
• Protein production and purification
• Protein crystallisation
• Structure determination (including X-ray crystallography, cryo-EM)
• Protein Function and biophysical techniques including ITC, MST and SPR
• Ligand screening assays
• Enzyme assays
• Targeted gene mutagenesis
• Microbiology training – including working at containment levels 2 and 3
• Antibiotic testing (MIC/MBC determination)
• Chemoenzymatic synthesis
• Synthetic chemistry
• Molecular modelling
Fenn JS, Nepravishta R, Guy CS, Harrison J, Angulo J, Cameron AD, Fullam E, ‘Structural basis of glycerophosphodiester recognition by the Mycobacterium tuberculosis substrate-binding protein UgpB’ ACS Chemical Biology (2019) 14 1879-1887
Guy CS, Gibson MI, Fullam E, “Targeting extracellular glycans: Tuning multimeric boronic acids for pathogen-selective killing of Mycobacterium tuberculosis” Sci. (2019) 10 5935-5942
Radhakrishnan A, Furze CM, Ahangar MS, Fullam E “A GFP-strategy for efficient recombinant protein overexpression and purification in Mycobacterium smegmatis” RSC Advances (2018) 8 33087-33095
Ahangar MS, Furze CM, Guy CS, Cooper C, Maskew KS, Graham B, Cameron AD, Fullam E “Structural and functional determination of homologs of the Mycobacterium tuberculosis N-acetylglucosamine-6-phosphate deacetylase, NagA, enzyme” Biol Chem. (2018) 293 9770-9783
Fullam E, Proke I, Futterer K, Besra GS. “Structural and Functional Analysis of the solute-binding protein UspC from Mycobacterium tuberculosis’ Open Biol. (2016) DOI: 10.1098/rsob.160105
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