Development of chaperonin 10-based second generation biopharmaceuticals for treatment of inflammatory diseases. Diseases caused by malfunctioning of the body's immune system (inflammatory diseases) such as rheumatoid arthritis, psoriasis and Crohn's disease cause illness in all cultures and societies, and impose financial strain on health care providers. Current treatment relies on biopharmaceuticals that block inflammatory mediators in the body or with pharmaceuticals such as anti-inflammatory ....Development of chaperonin 10-based second generation biopharmaceuticals for treatment of inflammatory diseases. Diseases caused by malfunctioning of the body's immune system (inflammatory diseases) such as rheumatoid arthritis, psoriasis and Crohn's disease cause illness in all cultures and societies, and impose financial strain on health care providers. Current treatment relies on biopharmaceuticals that block inflammatory mediators in the body or with pharmaceuticals such as anti-inflammatory drugs; both these treatments may have serious side effects. Cpn10 suppresses the body's inflammatory response while maintaining immune function to combat infections. The project seeks to develop new, safe and effective biopharmaceuticals based on Cpn10 for the treatment of a variety of chronic inflammatory diseases and autoimmune disorders.Read moreRead less
Characterisation of the anti-inflammatory pathway targeted by chaperonin 10 (Cpn10). Diseases associated with excessive or inappropriate inflammation represent an enormous socioeconomic burden, and there is currently an urgent need to identify new targets for the development of more efficacious and safe treatments. This research seeks to provide such targets. The research may also lead to improvements in chaperonin 10 (Cpn10) treatment, which has already showing marked success in chronic inflamm ....Characterisation of the anti-inflammatory pathway targeted by chaperonin 10 (Cpn10). Diseases associated with excessive or inappropriate inflammation represent an enormous socioeconomic burden, and there is currently an urgent need to identify new targets for the development of more efficacious and safe treatments. This research seeks to provide such targets. The research may also lead to improvements in chaperonin 10 (Cpn10) treatment, which has already showing marked success in chronic inflammatory disease trials. Importantly, Cpn10 appears to be anti-inflammatory rather than immunosuppressive; a critical advantage over many current anti-inflammatory interventions. Immunosuppression can lead to increased infections, which can have serious consequences, especially in elderly patients.Read moreRead less
New technology for the delivery of peptide-based T-cell vaccines for tumour immunotherapy. This project is dedicated to finding simple methods for vaccinating humans and animals against a wide variety of cancers. Should this be achieved millions of Australians will be protected from the devastating consequences of cancer. Consequently there will be great benefits socially, medically and economically.
New stable and specific mimics of T cell epitopes for tumor immunotherapy. This project is dedicated to finding simple methods for vaccinating humans and animals against a wide variety of cancers. Should this be achieved millions of Australians will be protected from the devastating consequences of cancer. Consequently there will be great benefits socially, medically and economically.
Enhanced multivalent vaccine responses using a novel vaccine vector system. Enhanced multivalent vaccine responses using a novel vaccine vector system. This project aims to develop a multicomponent vaccine system to deliver equal effectiveness against several disease targets in a single administration. New and innovative vaccine design strategies incorporating economical commercial production processes are urgently needed for new and existing human and animal health applications. A vaccine capab ....Enhanced multivalent vaccine responses using a novel vaccine vector system. Enhanced multivalent vaccine responses using a novel vaccine vector system. This project aims to develop a multicomponent vaccine system to deliver equal effectiveness against several disease targets in a single administration. New and innovative vaccine design strategies incorporating economical commercial production processes are urgently needed for new and existing human and animal health applications. A vaccine capable of targeting multiple diseases by a single injection is an obvious way to expedite future vaccine development and deployment. However, the recipient’s immune system can repress equivalent responses to these multicomponent vaccines. This project’s research is expected to address these problems, and underpin the future commercial development of this vaccine platform.Read moreRead less