Probing the Tasmanian Devil Serum Proteome for Preclinical Diagnosis of Devil Facial Tumour Disease. The Tasmanian Devil (Sarcophilus harrisii) is a carnivorous marsupial endemic to the island state of Tasmania, and is found all over the state. Over the past decade, a dramatic decline has occurred in the Devil population in association with the emergence of Devil Facial Tumour Disease (DFTD). This project aims to develop a preclinical diagnostic test for DFTD that will provide vital information ....Probing the Tasmanian Devil Serum Proteome for Preclinical Diagnosis of Devil Facial Tumour Disease. The Tasmanian Devil (Sarcophilus harrisii) is a carnivorous marsupial endemic to the island state of Tasmania, and is found all over the state. Over the past decade, a dramatic decline has occurred in the Devil population in association with the emergence of Devil Facial Tumour Disease (DFTD). This project aims to develop a preclinical diagnostic test for DFTD that will provide vital information for use in developing management strategies to ensure the ongoing survival of the Tasmanian Devil. The benefit to Australia in performing this research rests in the new technology that will be developed and the application of this technology to key areas of national and international significance.Read moreRead less
Covalent Hydrogen Bond Mimetics of Helical Peptide Hormones. Peptide hormones have been identified that adopt a helical shape when bound to their receptor. The project will produce new versions of these hormones by the use of directly bonded chemical linkers in place of the relatively weak helix hydrogen bonds. The resulting hormone mimics will be more stable, have lower molecular weight and be more selective than the natural hormones making them more suitable as drugs. Our new chemical techn ....Covalent Hydrogen Bond Mimetics of Helical Peptide Hormones. Peptide hormones have been identified that adopt a helical shape when bound to their receptor. The project will produce new versions of these hormones by the use of directly bonded chemical linkers in place of the relatively weak helix hydrogen bonds. The resulting hormone mimics will be more stable, have lower molecular weight and be more selective than the natural hormones making them more suitable as drugs. Our new chemical techniques allow us for the first time to fully investigate this approach which if successful will be applicable to many other helical peptides and therefore could be an important drug development technique.Read moreRead less
The role of the Ttyh1 protein in cell activation. We have cloned TTYH1, a human homologue of the Drosophila melanogaster tweety gene. The mouse gene has also been identified. The predicted structure of the protein is a membrane protein with 5 transmembrane domains. We have also expressed a GFP-tagged fusion protein in mouse fibroblasts. Confocal microscopy indicates that this protein is likely to be a novel adhesion molecule, with a cellular distribution characteristic of molecules such as integ ....The role of the Ttyh1 protein in cell activation. We have cloned TTYH1, a human homologue of the Drosophila melanogaster tweety gene. The mouse gene has also been identified. The predicted structure of the protein is a membrane protein with 5 transmembrane domains. We have also expressed a GFP-tagged fusion protein in mouse fibroblasts. Confocal microscopy indicates that this protein is likely to be a novel adhesion molecule, with a cellular distribution characteristic of molecules such as integrins. We aim to determine the function of Ttyh1, its interacting intra- and extra-cellular proteins and to assess its candidature as a molecule of importance in cell migration and adhesion.Read moreRead less