Novel Hybrid Inorganic Nanoparticles for Effective siRNA Delivery to Neurons. This project will lead to a more efficient and reliable drug delivery system to treat Huntington's disease. The insights and technology gained from this project will be directly applicable for many human diseases, both within and outside the central nervous system. This project will make a major contribution to the ARC's goal of maintaining good health and promises to significantly reduce the financial and psychologica ....Novel Hybrid Inorganic Nanoparticles for Effective siRNA Delivery to Neurons. This project will lead to a more efficient and reliable drug delivery system to treat Huntington's disease. The insights and technology gained from this project will be directly applicable for many human diseases, both within and outside the central nervous system. This project will make a major contribution to the ARC's goal of maintaining good health and promises to significantly reduce the financial and psychological burdens to patients' family and community. This project will encourage inter-disciplinary approaches to research and train highly skilled researchers both in neuroscience and nanobiotechnology to advance Australia's industrial competitiveness.Read moreRead less
Nanoscale Particle Control by Rigid Biomineralised Surfaces. The proposed research will increase understanding of the strategies diatoms use to sort particles. Our hypothesis is that in the process of understanding how these diatom surfaces control particles, blueprints for microfluidic devices will be identified. The appeal of diatoms goes beyond consideration of the geometrical patterning on their surfaces, because their frustules (the diatomic shells) are made primarily out of silica, a mater ....Nanoscale Particle Control by Rigid Biomineralised Surfaces. The proposed research will increase understanding of the strategies diatoms use to sort particles. Our hypothesis is that in the process of understanding how these diatom surfaces control particles, blueprints for microfluidic devices will be identified. The appeal of diatoms goes beyond consideration of the geometrical patterning on their surfaces, because their frustules (the diatomic shells) are made primarily out of silica, a material also used in nanofabrication. We expect that some of the strategies and patterns used by cells will be able to be directly transferred to microfluidics, and bypass years of empirical development in nanofabrication and lab-on-a-chip devices.Read moreRead less