Resolving surface nanobubbles as cavitation nuclei. This project aims to investigate the onset and control of cavitation, a challenging problem for over half a century. Cavitation is a process of bubble growth and subsequent collapse, and causes noise and damage to adjacent surfaces, e.g. the failure of ship propellers and valves. This project expects to unravel the mystery of cavitation nuclei, and to develop cavitation-free designs to mitigate the cavitation caused damage to propellers and val ....Resolving surface nanobubbles as cavitation nuclei. This project aims to investigate the onset and control of cavitation, a challenging problem for over half a century. Cavitation is a process of bubble growth and subsequent collapse, and causes noise and damage to adjacent surfaces, e.g. the failure of ship propellers and valves. This project expects to unravel the mystery of cavitation nuclei, and to develop cavitation-free designs to mitigate the cavitation caused damage to propellers and valves, and noise. The anticipated outcomes will significantly advance existing fundamental knowledge at the forefront of fluid physics and provide Australia with a significant advantage in the marine, pump and valve industries, and significantly benefit the Australian industry and economy. Read moreRead less
Australian Laureate Fellowships - Grant ID: FL220100059
Funder
Australian Research Council
Funding Amount
$2,937,786.00
Summary
Digital chemistry and catalysis: redefining reactions in confined systems. This Laureate program aims to initiate a new era of chemical catalysis and reaction manipulation via an entirely novel nanofluidic approach discovered in Australia. By further studying this phenomenon, it aims to deliver new insights into what drives chemical reactions in confined systems controlled by applied electric fields. It will also develop novel technology platforms to miniaturise and enable on-demand software-con ....Digital chemistry and catalysis: redefining reactions in confined systems. This Laureate program aims to initiate a new era of chemical catalysis and reaction manipulation via an entirely novel nanofluidic approach discovered in Australia. By further studying this phenomenon, it aims to deliver new insights into what drives chemical reactions in confined systems controlled by applied electric fields. It will also develop novel technology platforms to miniaturise and enable on-demand software-controlled (digital) chemistry, with broad applications in pharmaceutical, biotechnology and chemical industries. Project success will have a profound impact in many areas of modern society, the environment and the high-tech and manufacturing industry, while further enhancing Australia's sovereign manufacturing capability.Read moreRead less
Developing a new class of RNA delivery vehicle using synthetic virology. This project aims to develop robust protein cages derived from the empty shells of viruses, or capsids, to protect and deliver sensitive cargo such as RNA in agricultural settings. It will do so by directed evolution of non-infectious capsids in the lab. This will uncover the molecular mechanisms underpinning the response of viruses to chemical and biological signals and create a new class of RNA delivery vehicle. This synt ....Developing a new class of RNA delivery vehicle using synthetic virology. This project aims to develop robust protein cages derived from the empty shells of viruses, or capsids, to protect and deliver sensitive cargo such as RNA in agricultural settings. It will do so by directed evolution of non-infectious capsids in the lab. This will uncover the molecular mechanisms underpinning the response of viruses to chemical and biological signals and create a new class of RNA delivery vehicle. This synthetic biology approach combines virology and protein engineering to establish a platform biotechnology for stable and effective delivery. The project expects to demonstrate the potential of nature’s nanoparticles, virus capsids, to enhance the efficacy of RNA technologies in a wide range of applications.Read moreRead less