Defining the biosynthesis and immunological properties of complex bacterial glycolipids. We will study how sugar-lipids are made by industrially, agriculturally and medically important bacteria, and how they interact with the immune system. This will provide new insights into cell wall biosynthesis of importance to the biotechnology industry and identify new reagents for manipulating the immune system.
Unravelling the immunology of complex glycolipids by chemical synthesis. This project seeks to develop new approaches to chemically synthesise bacterial and fungal glycolipids and develop a molecular-level understanding of their effect on the immune system. Bacterial and fungal glycolipids are exotic chemical species that act as danger signals to prime and modulate our innate immune responses. These complex glycolipids possess powerful immunological activities that continue to shape our understa ....Unravelling the immunology of complex glycolipids by chemical synthesis. This project seeks to develop new approaches to chemically synthesise bacterial and fungal glycolipids and develop a molecular-level understanding of their effect on the immune system. Bacterial and fungal glycolipids are exotic chemical species that act as danger signals to prime and modulate our innate immune responses. These complex glycolipids possess powerful immunological activities that continue to shape our understanding of innate immunity, yet cannot be acquired from natural sources in the quantities and purity needed. The approaches expected to be developed in the project will be used to illuminate molecular details of immune signalling through pattern recognition receptors and presentation on specialised glycolipid antigen-presenting molecules. Outcomes may include new ways to fight disease and promote health by marshalling the resources of the immune system.Read moreRead less
New platform technologies for the chemical synthesis of post-translationally modified proteins. The last decade has seen an explosion in the number of protein drugs approved for use in the clinic, a large proportion of which possess post-translational modifications (PTMs). These modified protein drugs are produced and sold as mixtures which has led to difficulties in understanding the role of specific PTMs on activity and in gaining clinical approval for candidate drugs. This project will provid ....New platform technologies for the chemical synthesis of post-translationally modified proteins. The last decade has seen an explosion in the number of protein drugs approved for use in the clinic, a large proportion of which possess post-translational modifications (PTMs). These modified protein drugs are produced and sold as mixtures which has led to difficulties in understanding the role of specific PTMs on activity and in gaining clinical approval for candidate drugs. This project will provide a fundamental solution to this problem through the development of novel synthetic methods and a powerful new platform technology for accessing PTM proteins in pure form. The utility of this technology will be demonstrated through its use in the total chemical synthesis of a range of PTM proteins for applications in biology and medicine.Read moreRead less