Molecular response to interferon beta treatment in multiple sclerosis. Inteferon beta (IFNb) is the frontline drug for treatment of multiple sclerosis. However, in many patients this expensive drug provides no benefit, resulting in unnecessary, uncontrolled disease progression, and in a waste of many millions of dollars each year. A common explanation for this treatment failure is the development of neutralising antibodies (NABs). We will establish the prevalence and effects of NABs in Austra ....Molecular response to interferon beta treatment in multiple sclerosis. Inteferon beta (IFNb) is the frontline drug for treatment of multiple sclerosis. However, in many patients this expensive drug provides no benefit, resulting in unnecessary, uncontrolled disease progression, and in a waste of many millions of dollars each year. A common explanation for this treatment failure is the development of neutralising antibodies (NABs). We will establish the prevalence and effects of NABs in Australian patients, use novel techniques to identify biomarkers for IFNb response, evaluate the diagnostic and therapeutic value of the biomarkers, and develop a new test for NABs. Tailored use of this drug, and possible new therapeutic targets, will result, benefiting the patient and community.Read moreRead less
Surface Chemistry meets Cell Biology: Molecular Level Control of Surface Architecture for Cell Adhesion and Migration. Biotechnological applications such as tissue engineering, bone supports, implantable materials, cell assays and biosensors all require detailed knowledge of how cells interact with their environment. The proposed research aims to provide this knowledge by developing unique modified surfaces to investigate white blood cell migration and adhesion. Additional expected outcome will ....Surface Chemistry meets Cell Biology: Molecular Level Control of Surface Architecture for Cell Adhesion and Migration. Biotechnological applications such as tissue engineering, bone supports, implantable materials, cell assays and biosensors all require detailed knowledge of how cells interact with their environment. The proposed research aims to provide this knowledge by developing unique modified surfaces to investigate white blood cell migration and adhesion. Additional expected outcome will contribute to our understanding of the many fundamental cellular processes such as cell growth, differentiation and cell death as well as the molecular basis of diseases such as inflammation, cancer, cardiovascular diseases and wound healing. This research program will establish Australia as a leading force in this new research field.Read moreRead less