Advanced three-dimensional fibrous structures for vascular graft applications. This project will combine advanced three-dimensional fabric structures, surface functionalisation and haemodynamic modelling to tackle critical issues in the design and manufacture of vascular graft materials. It will lead to the next generation of vascular grafts with much enhanced structural and biomedical performance.
Acoustomicrofluidic platforms for two-dimensional materials processing. This project aims to exploit high frequency vibration through a novel microfluidic platform for efficiently synthesising and manipulating two-dimensional materials. The project is anticipated to circumvent practical limitations with current synthesis methods, particularly in terms of controllability and reproducibility. The expected outcome is a versatile means for rapidly and uniformly coating these materials on a variety o ....Acoustomicrofluidic platforms for two-dimensional materials processing. This project aims to exploit high frequency vibration through a novel microfluidic platform for efficiently synthesising and manipulating two-dimensional materials. The project is anticipated to circumvent practical limitations with current synthesis methods, particularly in terms of controllability and reproducibility. The expected outcome is a versatile means for rapidly and uniformly coating these materials on a variety of surfaces. Given their remarkable properties, such disruptive technology for consumer/industrial-scale production will provide tremendous opportunities for their application in electronics, energy and catalysis, among other uses.Read moreRead less
Water-phase Assembly of Durable, Superamphiphobic, Self-cleaning Surfaces. Self-cleaning surfaces offer an easy to maintain, environmentally friendly way of keeping surfaces clean - important for daily life, healthcare and industry. Using a water-phase process to prepare durable, self-cleaning (based on superamphiphobicity) surfaces is highly promising for practical uses, but remains challenging to perform. The present work aims to develop new knowledge on how to create superamphiphobic, self-cl ....Water-phase Assembly of Durable, Superamphiphobic, Self-cleaning Surfaces. Self-cleaning surfaces offer an easy to maintain, environmentally friendly way of keeping surfaces clean - important for daily life, healthcare and industry. Using a water-phase process to prepare durable, self-cleaning (based on superamphiphobicity) surfaces is highly promising for practical uses, but remains challenging to perform. The present work aims to develop new knowledge on how to create superamphiphobic, self-cleaning surfaces using a marine-mussel-inspired dopamine underwater assembly principle. The new technology developed is expected to be useful for wide production of durable self-cleaning coatings for diverse applications.Read moreRead less
Segmental fibres having periodically-repeating multicomponent segments from T-junction microfluidic electrospinning. Segmental fibres, which have periodically-repeating multi-component segments along their length, represent a new fibre type offering enormous potential in creating new fibre functions. The present work aims to develop a technical platform to prepare segmental fibres and new knowledge on how the fibre segments contribute to the property, functionality and inter-fibrous interaction ....Segmental fibres having periodically-repeating multicomponent segments from T-junction microfluidic electrospinning. Segmental fibres, which have periodically-repeating multi-component segments along their length, represent a new fibre type offering enormous potential in creating new fibre functions. The present work aims to develop a technical platform to prepare segmental fibres and new knowledge on how the fibre segments contribute to the property, functionality and inter-fibrous interaction of fibres. This will be achieved using a special microfluidic electrospinning technique. The segmental fibres developed will be useful for development of various new functional fibres for diverse applications. Read moreRead less
Superwettability effects on oil-mist coalescing fibrous filters. This project aims to provide new knowledge about how to use surface engineering techniques to produce highly efficient, energy-saving fibrous filters for separating oil mists from air streams. The focus is to address the challenge of the low efficiency of current generation coalescing filters for removal of oil mists smaller than one micrometre. The project will result in new methods to precisely control fibre surface wettability a ....Superwettability effects on oil-mist coalescing fibrous filters. This project aims to provide new knowledge about how to use surface engineering techniques to produce highly efficient, energy-saving fibrous filters for separating oil mists from air streams. The focus is to address the challenge of the low efficiency of current generation coalescing filters for removal of oil mists smaller than one micrometre. The project will result in new methods to precisely control fibre surface wettability and oil drainage within fibrous filters. The new knowledge and coalescing filters developed will benefit scientific and industrial fields including metal processing, automotive, engineering and manufacturing, electronics, food, hospital, mining, pharmaceuticals and energy generation.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE160100070
Funder
Australian Research Council
Funding Amount
$241,500.00
Summary
Automated Fibre Braiding Facility for Multifunctional Structural Materials. Automated fibre braiding facility for multifunctional structural materials:
This project seeks to establish an Australian automated braiding facility to create innovative fibrous materials with multiple functionalities. This facility aims to provide Australian researchers with the capabilities of high-speed, precision and versatility to radially braid single or multiple filament types including carbon, metal, optical, n ....Automated Fibre Braiding Facility for Multifunctional Structural Materials. Automated fibre braiding facility for multifunctional structural materials:
This project seeks to establish an Australian automated braiding facility to create innovative fibrous materials with multiple functionalities. This facility aims to provide Australian researchers with the capabilities of high-speed, precision and versatility to radially braid single or multiple filament types including carbon, metal, optical, natural, bio-inspired and bio-compatible fibres and filaments to create new materials with unique functional properties. The facility would be able to braid over multiple length scales spanning nanofibres to millimetre-sized filaments to create novel materials and shapes not possible using other processing techniques. Expected applications include new materials for building, self-healing, human protection and biomedicine. Read moreRead less
Hydro Equal Channel Angular Pressing (ECAP) - the way to industrial processing. Australia has rich resources in aluminium, titanium and magnesium. It is of strategic national importance to Australia to change from being an exporter of metals to becoming a purveyor of technology and high-end manufactured products. To compete in the global market, Australia needs to be in a leading position in production of light alloy components for automotive, aerospace, electronic, and bio-medical applications. ....Hydro Equal Channel Angular Pressing (ECAP) - the way to industrial processing. Australia has rich resources in aluminium, titanium and magnesium. It is of strategic national importance to Australia to change from being an exporter of metals to becoming a purveyor of technology and high-end manufactured products. To compete in the global market, Australia needs to be in a leading position in production of light alloy components for automotive, aerospace, electronic, and bio-medical applications. The establishment of industrially viable Hydro-ECAP technology for production of bulk ultrafine grained light alloys with superior mechanical properties will lead to a major breakthrough in the use of such materials and will help transforming Australia's metal forming companies to future-oriented manufacturing industries.Read moreRead less
Industrial Transformation Research Hubs - Grant ID: IH150100024
Funder
Australian Research Council
Funding Amount
$2,799,251.00
Summary
ARC Research Hub for Advanced Manufacturing of Medical Devices. ARC Research Hub for Advanced Manufacturing of Personalised Medical Devices. The project aims to transform Australia’s $10.8 billion medical technology sector by developing cost competitive technologies for the rapid production of personalised devices for Endovascular Aneurysm Repair (EVAR). To ensure the Australian industry remains globally competitive, this hub seeks to concurrently develop materials, technologies and flexible man ....ARC Research Hub for Advanced Manufacturing of Medical Devices. ARC Research Hub for Advanced Manufacturing of Personalised Medical Devices. The project aims to transform Australia’s $10.8 billion medical technology sector by developing cost competitive technologies for the rapid production of personalised devices for Endovascular Aneurysm Repair (EVAR). To ensure the Australian industry remains globally competitive, this hub seeks to concurrently develop materials, technologies and flexible manufacturing processes. The intended research outcomes include more efficient design and manufacturing processes and a new range of EVAR products generating increased market share and higher workforce capability. The resulting impacts should be better health outcomes, job creation and providing SMEs with new technologies and skills that can be transferred to the manufacture of products for other sectors.Read moreRead less