Nanoarchitectured multifunctional porous superparamagnetic nanoparticles. This project aims to develop a method for the direct detection of biomarkers based on a new class of highly porous superparamagnetic nanoparticles with peroxidase-like activity. The particles will be used as dispersible capture agents for isolating specific targets in biological samples, and electrocatalytic nanozymes for naked-eye evaluation and electrochemical detection. The project is expected to develop simple, low-cos ....Nanoarchitectured multifunctional porous superparamagnetic nanoparticles. This project aims to develop a method for the direct detection of biomarkers based on a new class of highly porous superparamagnetic nanoparticles with peroxidase-like activity. The particles will be used as dispersible capture agents for isolating specific targets in biological samples, and electrocatalytic nanozymes for naked-eye evaluation and electrochemical detection. The project is expected to develop simple, low-cost, portable devices for the analysis of exosomes and exosomal miRNA in biological samples. The future development of this technology into diagnostic devices will improve patient outcomes by enabling earlier disease diagnosis and improved monitoring of treatment.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE180100736
Funder
Australian Research Council
Funding Amount
$362,446.00
Summary
High performing multifunctional silicon nanomaterials for bio-applications. This project aims to develop high-performance, multifunctional silicon nanomaterials, and to understand their physicochemical properties for bio-imaging. A range of high-quality multifunctional silicon-based bio-probes with novel fluorescent and magnetic properties will be developed for enhancing bio-imaging. The outcomes of the project will further strengthen Australia’s leading position in the targeted areas of Advance ....High performing multifunctional silicon nanomaterials for bio-applications. This project aims to develop high-performance, multifunctional silicon nanomaterials, and to understand their physicochemical properties for bio-imaging. A range of high-quality multifunctional silicon-based bio-probes with novel fluorescent and magnetic properties will be developed for enhancing bio-imaging. The outcomes of the project will further strengthen Australia’s leading position in the targeted areas of Advanced Materials and Nanotechnology.Read moreRead less
Highly Efficient Nanomotors for Autonomous Cell Recognition and Isolation. This project aims to develop next-generation self-driven nanomotors capable of long-range motion with highly controlled directionality for cell recognition, transportation and separation in complex biological environments, to allow autonomous and seamless cell sorting with high accuracy. The anticipated goal of this project is to advance the field of nanotechnology and advanced manufacturing with potential to support new ....Highly Efficient Nanomotors for Autonomous Cell Recognition and Isolation. This project aims to develop next-generation self-driven nanomotors capable of long-range motion with highly controlled directionality for cell recognition, transportation and separation in complex biological environments, to allow autonomous and seamless cell sorting with high accuracy. The anticipated goal of this project is to advance the field of nanotechnology and advanced manufacturing with potential to support new applications and to value-add Australia’s advanced manufacturing industry, presenting new opportunities for Australian MedTech industries with innovative, disruptive technologies to address its unique needs and to claim Australia’s position within the competitive global market.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE180100294
Funder
Australian Research Council
Funding Amount
$368,446.00
Summary
Topochemical conversion of layers of graphene into diamond-like thin films. This project aims to experimentally convert layers of graphene into diamond-like thin films via novel chemical hydrogenation and fluorination approaches. Unconventional diamond-like thin films that possess remarkable physicochemical properties will be produced to trigger significant theoretical and technological interests in nano-carbon research. The project expects to impact the fundamental understanding of this new cla ....Topochemical conversion of layers of graphene into diamond-like thin films. This project aims to experimentally convert layers of graphene into diamond-like thin films via novel chemical hydrogenation and fluorination approaches. Unconventional diamond-like thin films that possess remarkable physicochemical properties will be produced to trigger significant theoretical and technological interests in nano-carbon research. The project expects to impact the fundamental understanding of this new class of graphene-derived materials whilst driving cutting-edge technological advances in electrochemical applications, membrane technologies and quantum computing.Read moreRead less
Using extreme conditions to synthesise new materials. This project aims to synthesise useful materials from non-crystalline light element precursors. Boron, carbon and nitrogen are the hardest known solids, and their ability to form many kinds of chemical bonds offers opportunities for attractive new materials. This project will apply high pressures and temperatures to non-crystalline precursor materials to access previously unobtainable synthesis conditions. This project will create strong and ....Using extreme conditions to synthesise new materials. This project aims to synthesise useful materials from non-crystalline light element precursors. Boron, carbon and nitrogen are the hardest known solids, and their ability to form many kinds of chemical bonds offers opportunities for attractive new materials. This project will apply high pressures and temperatures to non-crystalline precursor materials to access previously unobtainable synthesis conditions. This project will create strong and hard materials with tuneable optical and electronic properties. The expected outcome is new light materials that emit and detect light in the far ultraviolet for biological imaging and tough materials with low friction needed for motors and regenerative technologies.Read moreRead less
Building Novel Solid State Electric Double Layer Transistors with Interface Engineering of Ionic Conductive Oxide Superlattices. Transistors are the fundamental building blocks of modern electronic devices, which continue to diminish in size to achieve higher speeds. However, the development of this technology has been impeded by low carrier density in the gate dielectric materials. Therefore, increasing the attainable carrier density has become critically important for both scientific research ....Building Novel Solid State Electric Double Layer Transistors with Interface Engineering of Ionic Conductive Oxide Superlattices. Transistors are the fundamental building blocks of modern electronic devices, which continue to diminish in size to achieve higher speeds. However, the development of this technology has been impeded by low carrier density in the gate dielectric materials. Therefore, increasing the attainable carrier density has become critically important for both scientific research and industrial applications. This project aims at experimental and theoretical development of advanced ionic conductive oxide superlattices with colloidal nanocubes for novel solid state electric double layer transistors, which possess ultrahigh carrier density and mobility, to surmount the fundamental limit of current silicon semiconductor technologies.Read moreRead less
Industrial Transformation Research Hubs - Grant ID: IH210100040
Funder
Australian Research Council
Funding Amount
$5,000,000.00
Summary
ARC RESEARCH HUB FOR CONNECTED SENSORS FOR HEALTH. This Hub aims to develop, manufacture and deploy high-tech, cyber-secure, medically-certified IoT sensors to global health markets by integrating disparate Australian capabilities into a productive end-to-end value chain. This Hub expects to position Australia at the forefront of connected health by integrating sensor science with cyber-secure data analytics, regulatory approval and certified manufacturing capabilities. Expected outcomes of this ....ARC RESEARCH HUB FOR CONNECTED SENSORS FOR HEALTH. This Hub aims to develop, manufacture and deploy high-tech, cyber-secure, medically-certified IoT sensors to global health markets by integrating disparate Australian capabilities into a productive end-to-end value chain. This Hub expects to position Australia at the forefront of connected health by integrating sensor science with cyber-secure data analytics, regulatory approval and certified manufacturing capabilities. Expected outcomes of this Hub include advanced manufacturing capacity for connected sensors, strategic partnerships and commercialisation skills to translate sensors research to create economic benefits such as jobs and locally-made products for domestic and export markets, as well as improving the health of Australians.Read moreRead less
Next generation hybrid nanomaterials: bispecific antibody-targeted polymers. This project aims to develop and optimise a novel platform technology that will assist in the development of hybrid materials consisting of nanomaterials and biomolecules, which form the basis of many commercial diagnostic devices. A novel antibody, MIL38, will provide the test bed for the technology, which will aim to deliver a platform that is stable under physiological conditions and that enables facile conjugation o ....Next generation hybrid nanomaterials: bispecific antibody-targeted polymers. This project aims to develop and optimise a novel platform technology that will assist in the development of hybrid materials consisting of nanomaterials and biomolecules, which form the basis of many commercial diagnostic devices. A novel antibody, MIL38, will provide the test bed for the technology, which will aim to deliver a platform that is stable under physiological conditions and that enables facile conjugation of nanomaterials with antibodies. This project has the potential to rapidly improve the ligation process between synthetic nanomaterials and biologics, leading to more efficient synthesis of targeted diagnostics. This would provide a significant commercial advantage for any nanomaterials developed for the field, and specifically for this project, expedite translation of MIL38.Read moreRead less
The mechanical and electrical behaviour of boron nitride nanotubes: Insight from in-situ transmission electron microscopy investigation. Boron nitride nanotubes are an emerging class of inorganic nanotubes with insulating property, exceptional thermal stability, high thermal conductivity, and superior mechanical properties including ultrahigh strength and elastic modulus which are not possible in conventional materials. This project aims to apply state-of-the-art in-situ transmission electron mi ....The mechanical and electrical behaviour of boron nitride nanotubes: Insight from in-situ transmission electron microscopy investigation. Boron nitride nanotubes are an emerging class of inorganic nanotubes with insulating property, exceptional thermal stability, high thermal conductivity, and superior mechanical properties including ultrahigh strength and elastic modulus which are not possible in conventional materials. This project aims to apply state-of-the-art in-situ transmission electron microscopy techniques to explore the dependence of mechanical properties on size, morphology and structure of boron nitride nanotubes and the effect of mechanical strain on electrical properties, which will provide opportunities for composite materials reinforcement via nanotubes, and tune the electronic and optoelectronic properties of nanotubes via strain engineering.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE180100030
Funder
Australian Research Council
Funding Amount
$541,705.00
Summary
National facility for nanoscale characterisation of luminescent materials. The project aims to establish a national facility for nanoscale characterisation of advanced optoelectronic materials, including atomically-thin materials, luminescent nanocrystals, metamaterials, and plasmonic nanostructures. The combination of a highly focused electron beam, and novel light detection optics, will enable temperature-dependent, angle, polarisation and time-resolved luminescence analysis with unprecedented ....National facility for nanoscale characterisation of luminescent materials. The project aims to establish a national facility for nanoscale characterisation of advanced optoelectronic materials, including atomically-thin materials, luminescent nanocrystals, metamaterials, and plasmonic nanostructures. The combination of a highly focused electron beam, and novel light detection optics, will enable temperature-dependent, angle, polarisation and time-resolved luminescence analysis with unprecedented resolution. It is expected this will yield discoveries in nanoscale physics and materials science. It will create interdisciplinary collaborations by linking Australian scientists who use high-resolution multimodal characterisation methods to innovate and develop materials and device technologies.Read moreRead less