Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0560716
Funder
Australian Research Council
Funding Amount
$864,610.00
Summary
A National T-ray Facility. T-rays are between microwaves and infrared on the electromagnetic spectrum. Recently, advances in femtosecond lasers enabled access to T-ray frequencies, producing an important new imaging modality for non-invasive sensing of materials and structures. Internationally, T-rays represent a rich new science leading to advanced forms of biophotonics, biomedical imaging and spectroscopy. Non-invasive T-ray diagnostics of nano- and bio-materials are being hotly pursued. The o ....A National T-ray Facility. T-rays are between microwaves and infrared on the electromagnetic spectrum. Recently, advances in femtosecond lasers enabled access to T-ray frequencies, producing an important new imaging modality for non-invasive sensing of materials and structures. Internationally, T-rays represent a rich new science leading to advanced forms of biophotonics, biomedical imaging and spectroscopy. Non-invasive T-ray diagnostics of nano- and bio-materials are being hotly pursued. The outcome will be a strategically important Australian T-ray facility that will provide immediate and transparent nationwide access. Historically, industry is transformed every time a new part of the electromagnetic spectrum becomes accessible - T-rays are the next frontier.Read moreRead less
DROP DEFORMATION IN CONFINED MICROFLUIDIC GEOMETRIES. Increasingly, high technology applications in biotechnology and microtechnology industries need to process complex (non-Newtonian) fluids with dispersed particles/droplets in channels as small as several microns (microfluidics). A computational fluid dynamic model of non-Newtonian droplet deformation in microfluidic geometries will be developed, and validated using experimental measurements of the flow field in this project. The aim is to und ....DROP DEFORMATION IN CONFINED MICROFLUIDIC GEOMETRIES. Increasingly, high technology applications in biotechnology and microtechnology industries need to process complex (non-Newtonian) fluids with dispersed particles/droplets in channels as small as several microns (microfluidics). A computational fluid dynamic model of non-Newtonian droplet deformation in microfluidic geometries will be developed, and validated using experimental measurements of the flow field in this project. The aim is to understand and quantify factors influencing droplet deformation. Coupling non-Newtonian characteristics with microfluidic geometries will allow the continuous manufacture of micro-particles of specified size and shape for existing and new applications, and will provide guidance for further extending the process to nano-particle manufacture.Read moreRead less
Transport control in multi-species fluid suspensions. This project aims to develop novel methods of controlling multi-species particles in fluid suspensions, such as microorganisms in wounds. Physical methods of control offer additional opportunities for wound healing in the era of increased microbial resistance to antibiotics. The project will develop methods of controlling the local concentration of microorganisms, such as bacteria and cells, using wave-driven turbulent transport and active sy ....Transport control in multi-species fluid suspensions. This project aims to develop novel methods of controlling multi-species particles in fluid suspensions, such as microorganisms in wounds. Physical methods of control offer additional opportunities for wound healing in the era of increased microbial resistance to antibiotics. The project will develop methods of controlling the local concentration of microorganisms, such as bacteria and cells, using wave-driven turbulent transport and active synthetic agents. The proposed methods will also benefit applications in microfluidics, liquid metamaterials, micro-assembly and technologies for cleaning liquid surfaces. The project will advance our fundamental knowledge of particle interaction with matter waves.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE170100032
Funder
Australian Research Council
Funding Amount
$900,000.00
Summary
Access to the National Computing Infrastructure peak supercomputing facility. This project aims to continue the access of Intersect’s computational researchers to the National Computational Infrastructure (NCI) peak supercomputing facility. The peak supercomputing facility at NCI is critical collaborative infrastructure on a globally competitive scale. Transformative advances in science and technology increasingly rely on high performance computing capabilities across a wide range of research di ....Access to the National Computing Infrastructure peak supercomputing facility. This project aims to continue the access of Intersect’s computational researchers to the National Computational Infrastructure (NCI) peak supercomputing facility. The peak supercomputing facility at NCI is critical collaborative infrastructure on a globally competitive scale. Transformative advances in science and technology increasingly rely on high performance computing capabilities across a wide range of research disciplines. Ongoing access to this facility will allow researchers to tackle major problems in national priority areas including energy, health, and environmental change.Read moreRead less
Versatile dosimetry systems for radiotherapy and industrial applications: novel storage phosphor and associated reader technologies. Radiotherapy is an important procedure in the treatment of cancer, and it is essential that the radiation dosage can be accurately measured. This project will develop technology which will enable us to monitor radiation dosage in real time and very accurately. This will be of importance in medical science and also for industrial applications.