Project Details
Project Description
This project aims to utilise protein engineering, structural biology, and biochemistry to characterise the function of
key members of the aerolysin/epsilon toxin/Toxin_10 pore-forming protein superfamily. Pore formation is a ubiquitous mechanism deployed by all kingdoms as defences against invading organisms. The expected outcomes of this project include the development of novel techniques aimed, broadly, at studying pore-forming proteins during the assembly pathway. This project should be of benefit to the wider research community by improving our understanding of pore-forming proteins as potential pest control agents.
key members of the aerolysin/epsilon toxin/Toxin_10 pore-forming protein superfamily. Pore formation is a ubiquitous mechanism deployed by all kingdoms as defences against invading organisms. The expected outcomes of this project include the development of novel techniques aimed, broadly, at studying pore-forming proteins during the assembly pathway. This project should be of benefit to the wider research community by improving our understanding of pore-forming proteins as potential pest control agents.
Status | Active |
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Effective start/end date | 28/06/24 → 27/06/27 |
Funding
- Australian Research Council (ARC): A$327,237.00
- Australian Research Council (ARC): A$107,763.00
- Monash University – Internal Department Contribution: A$285,251.00
Equipment
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Micromon
Scott Coutts (Manager)
Faculty of Medicine Nursing and Health Sciences Research PlatformsFacility/equipment: Facility
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Monash Proteomics & Metabolomics Facility
Ralf Schittenhelm (Manager)
Faculty of Medicine Nursing and Health Sciences Research PlatformsFacility/equipment: Facility
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Ramaciotti Centre for Cryo-Electron Microscopy
Georg Ramm (Manager), Simon Andrew Crawford (Operator), Hariprasad Venugopal (Operator), Joan Marea Clark (Operator) & Gediminas Gervinskas (Operator)
Faculty of Medicine Nursing and Health Sciences Research PlatformsFacility/equipment: Facility