Nanobionic sensors for Real-Time Plant Health Monitoring. This project aims to develop nanosensors to detect and monitor plant health in real-time by measuring stress molecules. The project will create new knowledge on functional materials with unique optical, electronic and thermal properties as well as their bio-nano interactions with plants. The expected outcomes of the project will provide insight into 1) how localised nanosensors target organelles in living plants to 2) generate signals tha ....Nanobionic sensors for Real-Time Plant Health Monitoring. This project aims to develop nanosensors to detect and monitor plant health in real-time by measuring stress molecules. The project will create new knowledge on functional materials with unique optical, electronic and thermal properties as well as their bio-nano interactions with plants. The expected outcomes of the project will provide insight into 1) how localised nanosensors target organelles in living plants to 2) generate signals that can be picked up by portable devices to 3) report on plant health. Functional nanosensors will enable smart farming, precision agriculture and contribute to future agronomic research, further strengthening Australia’s position as an international leader in nanobiotechnology.Read moreRead less
Discovery Early Career Researcher Award - Grant ID: DE210101666
Funder
Australian Research Council
Funding Amount
$395,588.00
Summary
Engineering nanoparticles with enhanced adhesion at the nano-bio interfaces. This project aims to develop a next-generation adhesive nanoparticle platform through in-depth understandings of nanoparticle interactions with bio-interfaces. This project expects to generate new knowledge in the multidisciplinary research field at nano-bio-interfaces by using a recently developed nano-colloidal probe technology, instructing the rational design of nanoparticles with enhanced interface adhesive properti ....Engineering nanoparticles with enhanced adhesion at the nano-bio interfaces. This project aims to develop a next-generation adhesive nanoparticle platform through in-depth understandings of nanoparticle interactions with bio-interfaces. This project expects to generate new knowledge in the multidisciplinary research field at nano-bio-interfaces by using a recently developed nano-colloidal probe technology, instructing the rational design of nanoparticles with enhanced interface adhesive properties. Expected outcomes include a family of adhesive nanoparticles designed for nanopesticide and animal feed applications, with the potential to deliver valuable intellectual property of commercial interest and economic benefit through technology advancement.Read moreRead less
Australian Laureate Fellowships - Grant ID: FL120100030
Funder
Australian Research Council
Funding Amount
$2,779,572.00
Summary
Engineering materials for advances in nanomedicine. Nanomedicine is one of the fastest growing areas in nanotechnology. This project will develop next-generation particle systems with engineered properties that are expected to underpin advances in the delivery of therapeutics in the areas of cancer, vaccines, cardiovascular disease and neural health.
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE100100121
Funder
Australian Research Council
Funding Amount
$1,000,000.00
Summary
An analytical transmission electron microscope for the investigation of functional materials, earth processes and novel condensed matter. Sustainablity depends on the delivery of clean energy, pristine water and air, and the manufacture of consumer products with small environmental footprints. Modelling long-term impacts requires an understanding of the hydro-geological cycles. The technologies are well known—efficient electronics, fuel cells, lightweight composites, and so on—but delivery is ....An analytical transmission electron microscope for the investigation of functional materials, earth processes and novel condensed matter. Sustainablity depends on the delivery of clean energy, pristine water and air, and the manufacture of consumer products with small environmental footprints. Modelling long-term impacts requires an understanding of the hydro-geological cycles. The technologies are well known—efficient electronics, fuel cells, lightweight composites, and so on—but delivery is not straightforward. It is clear, however, that novel materials manipulated at fine scales will be key. Transmission electron microscopy (TEM) guides the development of sustainable technologies. The new TEM facility at ANU will accelerate current studies, by enhancing the materials research portfolio, and extending national and international collaborations in materials, geological and earth sciences.Read moreRead less
Nanoengineered Polymeric Materials for Environmental and Biological Applications. The development of advanced materials with nanoengineered properties promises to revolutionise future industries, including the energy and healthcare sectors. This research program will involve the design, synthesis and assembly of tailored polymers to prepare next-generation, engineered materials. The research will deliver advanced polymeric membranes, tissue engineering scaffolds and vaccine delivery systems. The ....Nanoengineered Polymeric Materials for Environmental and Biological Applications. The development of advanced materials with nanoengineered properties promises to revolutionise future industries, including the energy and healthcare sectors. This research program will involve the design, synthesis and assembly of tailored polymers to prepare next-generation, engineered materials. The research will deliver advanced polymeric membranes, tissue engineering scaffolds and vaccine delivery systems. These materials are expected to provide benefits for Australian citizens in the energy and health sectors and contribute to the development of a robust Australian nanotechnology industry. The projects will also provide opportunities for the development of outstanding young scientists and will foster multidisciplinary collaborations.Read moreRead less
A multimodal approach to unravel the role of surface properties in nanoparticle-cell interactions using models of medical emergencies. The design and development of multimodal nanoparticles seek to expand upon the benefits of nanoparticles by delivering imaging and therapeutic agents to specific organs, enabling detection and treatment of disease in a single procedure. The successful implementation of this technology is dependent on our detailed understanding of the nanoparticle-cell interaction ....A multimodal approach to unravel the role of surface properties in nanoparticle-cell interactions using models of medical emergencies. The design and development of multimodal nanoparticles seek to expand upon the benefits of nanoparticles by delivering imaging and therapeutic agents to specific organs, enabling detection and treatment of disease in a single procedure. The successful implementation of this technology is dependent on our detailed understanding of the nanoparticle-cell interactions. This project will address this very important issue by evaluating a range of surface functionalised nanoparticles in highly significant models of medical emergencies. This project will enable development of advanced therapeutic interventions for cancer, central nervous system injuries, cardiovascular diseases and pregnancy related disorders.Read moreRead less
Optimisation of functional mesoporous materials for low-abundance biomarkers quantification towards biodiagnostic applications. Using state-of-the-art nanotechnology, a novel approach will be developed to quantitatively analyse low abundance peptides and proteins. This will aid in the detection of a biomarker in osteoarthritis, a disease affecting 3.85 million Australians. This project has significance for the early diagnosis and improved treatment of this disease.
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE200100033
Funder
Australian Research Council
Funding Amount
$1,200,000.00
Summary
In situ Environmental Electron Microscope Facility. This project aims to establish an In situ Environmental Electron Microscope Facility to characterise real-time and dynamic changes in nanomaterials at the atomic scale. We will combine a cutting-edge 'in situ' gas/heating/electrical bias holder with new camera and analysis technology on a transmission electron microscope. This facility will be a sophisticated suite of equipment that will innovate and transform microscopy in Australia to image s ....In situ Environmental Electron Microscope Facility. This project aims to establish an In situ Environmental Electron Microscope Facility to characterise real-time and dynamic changes in nanomaterials at the atomic scale. We will combine a cutting-edge 'in situ' gas/heating/electrical bias holder with new camera and analysis technology on a transmission electron microscope. This facility will be a sophisticated suite of equipment that will innovate and transform microscopy in Australia to image structural and compositional changes of materials under stimuli at a speed and resolution previously unachievable. This project will drive pioneering research in the fields of Materials Science, Chemistry and Catalysis to solve problems in advanced manufacturing, energy, technology and the environment.Read moreRead less
Diamane: A New Frontier in Materials Science. Single-layer diamond (‘diamane’) is a new frontier of material research although its preparation is still in infancy with many structures predicted possible but have not been made experimentally. Built on a new chemical route for 'graphite to diamane' transformation, this project will address a research gap towards synthesising new diamane(-like) nanostructures and developing an in-depth understanding of the chemically induced phase transformation an ....Diamane: A New Frontier in Materials Science. Single-layer diamond (‘diamane’) is a new frontier of material research although its preparation is still in infancy with many structures predicted possible but have not been made experimentally. Built on a new chemical route for 'graphite to diamane' transformation, this project will address a research gap towards synthesising new diamane(-like) nanostructures and developing an in-depth understanding of the chemically induced phase transformation and structure-property correlations, which will have far-reaching impact on scientific fields beyond carbon research. Preliminary data points to both feasibility and impact for discovering new materials and technologies, which will bring foreseeable scholarly, economic, and social benefits.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE140100075
Funder
Australian Research Council
Funding Amount
$580,000.00
Summary
Next Generation Small Angle X-Ray Scattering Facility. Next generation small angle X-ray scattering facility: The ability to determine the nanostructure of bulk materials is of utmost importance in an array of cutting-edge research fields. A state-of-the-art small angle X-ray scattering (SAXS) facility will address this for a wide range of materials covering a diverse range of research topics such as energy storage materials, catalytic species, drug delivery systems, protein structures, biologic ....Next Generation Small Angle X-Ray Scattering Facility. Next generation small angle X-ray scattering facility: The ability to determine the nanostructure of bulk materials is of utmost importance in an array of cutting-edge research fields. A state-of-the-art small angle X-ray scattering (SAXS) facility will address this for a wide range of materials covering a diverse range of research topics such as energy storage materials, catalytic species, drug delivery systems, protein structures, biological membranes, medical diagnostics and therapy, magnetic nanosystems, polymers, novel technologies for the clean utilisation of biomass, and minerals processing. The facility will underpin a range of current and planned multidisciplinary research programs leading to vital nanostructural information and innovative research solutions.Read moreRead less