Modelling and Performance Evaluation of Stab and Ballistic Resistant Fabrics. The aims of the project are to model and design stab resistant fabrics, and evaluate their stab and ballistic performance under simulated end-use conditions. Bi-component ballistic and stab resistant wearable and concealable garments will be produced and comprehensively characterised. This program is a significant first step towards developing Australian owned intellectual property for specialised protective garments f ....Modelling and Performance Evaluation of Stab and Ballistic Resistant Fabrics. The aims of the project are to model and design stab resistant fabrics, and evaluate their stab and ballistic performance under simulated end-use conditions. Bi-component ballistic and stab resistant wearable and concealable garments will be produced and comprehensively characterised. This program is a significant first step towards developing Australian owned intellectual property for specialised protective garments for local and export markets. Results from this study will produce fundamental knowledge on stab and ballistic resistant fabrics and armours, and provide practical information on the preparation of commercially acceptable protective products.Read moreRead less
Multilayered Safety Clothing for Personal Protective Equipment. This project aims to improve multilayered firefighting protective garments and their thermal comfort by utilizing aerogel microparticles containing thermal regulation materials and flame-retardant agents. This research will create new multifunctional fabric designs and engineering techniques to integrate improved heat and flame protection, comfort and smart features into optimized multilayered garments. It will create novel clothing ....Multilayered Safety Clothing for Personal Protective Equipment. This project aims to improve multilayered firefighting protective garments and their thermal comfort by utilizing aerogel microparticles containing thermal regulation materials and flame-retardant agents. This research will create new multifunctional fabric designs and engineering techniques to integrate improved heat and flame protection, comfort and smart features into optimized multilayered garments. It will create novel clothing systems that will better protect wearers and allow them to effectively combat bushfires and save lives and assets. The successful completion will enable industrial capability in next generation advanced protective garments and functional uniforms for broad occupational health safety and well-being applications.Read moreRead less
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.
Australian ultrafine wool dehairing and processing. A novel fibre separation process will be developed to achieve the finest merino wool for processing into luxurious items. This project will add significant value to our multi-billion dollar animal fibre industry, and further enhance Australia's international reputation as the source for the highest quality wool as well as wool research and development.
Fibre-sized energy generators and storage in multi-functional fabrics. This project proposes to do away with conventional batteries for powering portable or wearable devices by developing wearable fabrics capable of energy generation. The outcome will be a robust fabric with the capability of powering wearable or portable devices in the communications, health-care, sports and defence industries.
Self-powered active noise control via a nanofibre acoustoelectric converter. This project aims to investigate a new, active noise control system that can eliminate low frequency noise without the use of external electricity. This project will generate new knowledge about how to realise self-powering on active noise controllers using piezoelectric nanofibres as sound detector and power generator. Expected outcomes include an effective method to produce this novel noise controller and a systemic u ....Self-powered active noise control via a nanofibre acoustoelectric converter. This project aims to investigate a new, active noise control system that can eliminate low frequency noise without the use of external electricity. This project will generate new knowledge about how to realise self-powering on active noise controllers using piezoelectric nanofibres as sound detector and power generator. Expected outcomes include an effective method to produce this novel noise controller and a systemic understanding about materials, devices and performance. This will significantly benefit development of advanced noise controlling technology and products, benefiting industry and the environment.Read moreRead less
Elastic and biodegradable sponges/aerogels from exfoliated silk nanofibres . The aim of this project is to investigate methods to produce highly porous elastic sponges from silk protein nanofibres. These sponges will have optimal mechanical, insulation and degradation properties making them suitable for a wide range of applications including the biomedical and personal care sectors, where current products have significant drawbacks due to the use of non-biodegradable synthetic materials. Outco ....Elastic and biodegradable sponges/aerogels from exfoliated silk nanofibres . The aim of this project is to investigate methods to produce highly porous elastic sponges from silk protein nanofibres. These sponges will have optimal mechanical, insulation and degradation properties making them suitable for a wide range of applications including the biomedical and personal care sectors, where current products have significant drawbacks due to the use of non-biodegradable synthetic materials. Outcomes include new knowledge on controlling porous structures and tailoring properties to targeted applications. This project, by laying the groundwork for a new generation of bio-based materials, will benefit the Australian advanced manufacturing sector, and enhance Australia's standing in materials science and engineering.Read moreRead less
Engineering a silk fibroin based ear drum with optimum acoustic properties. This project will use new silk fibroin materials to develop ear drums with improved acoustic properties. This will lead to significant improvement in the quality of life of nearly 2.5 million people in Australia who are affected by hearing loss and further strengthen Australia's leading position in this area.
Optimizing the UV Protection of Textiles with Nano Zinc Oxide. Colour fading, due to poor fastness to light - especially ultraviolet light - is a critical problem that continues to plague the textile industry, especially for products such as flags, awnings and car upholstery that are used in outside applications and therefore exposed directly to sunlight. This research, in collaboration with Micronisers Pty Ltd, will develop improved nano zinc oxide formulations that will significantly reduce th ....Optimizing the UV Protection of Textiles with Nano Zinc Oxide. Colour fading, due to poor fastness to light - especially ultraviolet light - is a critical problem that continues to plague the textile industry, especially for products such as flags, awnings and car upholstery that are used in outside applications and therefore exposed directly to sunlight. This research, in collaboration with Micronisers Pty Ltd, will develop improved nano zinc oxide formulations that will significantly reduce the colour fading problems, and hence add value to the fledgling nano-tech (as well as traditional textile) industries in Australia. It could enable local production of a specialised textile finishing agent for export to major textile producers in South East Asia.Read moreRead less
Application and Evaluation of New Phase Change Materials in Textiles for Minimization of Heat Stress in Elite Athletes. Elite athletes experience heat stress during endurance events as they reach natural barriers of heat dissipation and thermal regulation. These stresses limit performance and present severe psychological challenges. Research showing that cooling body temperatures prior to competition can increase performance led the Australian Institute of Sport to develop ice jackets during the ....Application and Evaluation of New Phase Change Materials in Textiles for Minimization of Heat Stress in Elite Athletes. Elite athletes experience heat stress during endurance events as they reach natural barriers of heat dissipation and thermal regulation. These stresses limit performance and present severe psychological challenges. Research showing that cooling body temperatures prior to competition can increase performance led the Australian Institute of Sport to develop ice jackets during the 1990s. Our project will develop a new generation of athlete garments embedded with phase change materials that provide efficient cooling during competition, without the disadvantages of ice chilling. These novel materials may provide a competitive edge under the extreme conditions expected at the Athens Olympics and beyond.Read moreRead less