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Laws of attraction and repulsion: a novel family of bacterial chemo-sensors. This project aims to reveal the structural basis for the abilities of a newly characterised, widespread family of chemotaxis receptors to sense and distinguish between attractants and repellents. Many bacteria are motile. Controlling the movement of bacterial populations requires understanding of their chemosensory mechanisms. It is anticipated that this work will generate significant new knowledge in the field of signa ....Laws of attraction and repulsion: a novel family of bacterial chemo-sensors. This project aims to reveal the structural basis for the abilities of a newly characterised, widespread family of chemotaxis receptors to sense and distinguish between attractants and repellents. Many bacteria are motile. Controlling the movement of bacterial populations requires understanding of their chemosensory mechanisms. It is anticipated that this work will generate significant new knowledge in the field of signalling biology that will drive the discovery of novel chemo-effectors and the redesign of receptor specificity. Innovative use of this knowledge could be the development of new classes of repellents that are not toxic. These could be used as a means to prevent infections caused by bacterial build-up on implanted medical devices.Read moreRead less
Structural and functional studies of Helicobacter pylori flagellar motor. This project investigates the bacterial flagellar motor specialised for locomotion in viscous fluids. Its striking feature, revealed by cryo-tomography, is a complex cage-like protein scaffold that is hypothesised to stabilise the wider force-generating ring of the motor to sustain a larger turning force. The aim is to unravel the make-up of this scaffold and the structural basis for its ability to recruit more force-gener ....Structural and functional studies of Helicobacter pylori flagellar motor. This project investigates the bacterial flagellar motor specialised for locomotion in viscous fluids. Its striking feature, revealed by cryo-tomography, is a complex cage-like protein scaffold that is hypothesised to stabilise the wider force-generating ring of the motor to sustain a larger turning force. The aim is to unravel the make-up of this scaffold and the structural basis for its ability to recruit more force-generating units, in order to advance our fundamental knowledge about the mechanism of the bacterial flagellar motor, and about strategies used by nature to increase its performance under high viscosity conditions. This research is expected to add a new paradigm for how polar flagellar motors assemble and function in bacteria.
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Molecular mechanisms of mechanosensation and shape regulation in cells. This project aims to explore how cells physically sense and respond to the surrounding environment on a molecular level. Physical distortion of erythrocytes doubles their glucose consumption and increases cation membrane flux five-fold. This mechanism involves opening of the mechanosenstive ion channel Piezo1. This project will include a kinetic description of these phenomena, with a goal to establish a predictive mathematic ....Molecular mechanisms of mechanosensation and shape regulation in cells. This project aims to explore how cells physically sense and respond to the surrounding environment on a molecular level. Physical distortion of erythrocytes doubles their glucose consumption and increases cation membrane flux five-fold. This mechanism involves opening of the mechanosenstive ion channel Piezo1. This project will include a kinetic description of these phenomena, with a goal to establish a predictive mathematical model of the regulation of cell-shape and volume. The project will provide an understanding of mechanisms operating when cells and tissues are succumbing to trauma and invasion, and how to control these processes on a molecular level.Read moreRead less