Highly functional green materials platform: Starch-ionic liquid-carbon nanotube polymer melt nanocomposites. This project will deliver state of the art scientific advances in green polymers, green plasticisers and tailored nanomaterials for melt processible renewable starch plastics for high-performance applications as electroactive polymers in areas such as biosensors and biodiagnostics.
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE110100033
Funder
Australian Research Council
Funding Amount
$150,000.00
Summary
Green biopolymer nanocomposites facility: supercritical carbon dioxide characterisation and processing for nanomaterials and biopolymers. This facility will house characterisation and processing equipment for developing the next generation biopolymer materials. Novel biopolymers will be developed from natural and renewable resources using improved performance and lower energy supercritical carbon dioxide processing methods.
Development of High Performance Mechanical Sorting of Plastics for Recycling. This research program aims to develop and test a range of high performance, mechanical in-process plastics sorting technologies in conjunction with Australia's lead recycling company. Currently, recycling techniques result in an insufficient purity and quality level, thus limiting the extent of recycling and opportunity for end product applications. Increasing the purity of recycled plastics and economics of recyclin ....Development of High Performance Mechanical Sorting of Plastics for Recycling. This research program aims to develop and test a range of high performance, mechanical in-process plastics sorting technologies in conjunction with Australia's lead recycling company. Currently, recycling techniques result in an insufficient purity and quality level, thus limiting the extent of recycling and opportunity for end product applications. Increasing the purity of recycled plastics and economics of recycling, without compromising throughput levels, will result in an increase in recycling rates and the range of applications of recycled plastics.Read moreRead less
Circular Economy Opportunities For Fisheries And Aquaculture In Australia
Funder
Fisheries Research and Development Corporation
Funding Amount
$158,000.00
Summary
Current resource use challenges sustainability and resilience of industries. Circular value chains allow management of waste losses and maximise resource recovery. A circular economy (CE) mimics the cycles in nature in which there is no waste. Maximum value and utility of products and materials is maintained in CE through a combination of extending product lifetimes, increasing resource use intensity, and end-of-life material recycling. CE includes the idea of regenerative development, i.e. as ....Current resource use challenges sustainability and resilience of industries. Circular value chains allow management of waste losses and maximise resource recovery. A circular economy (CE) mimics the cycles in nature in which there is no waste. Maximum value and utility of products and materials is maintained in CE through a combination of extending product lifetimes, increasing resource use intensity, and end-of-life material recycling. CE includes the idea of regenerative development, i.e. as the earth’s resources cycle as materials through the economy they restore and enhance, rather than deplete, natural capital.
Economic opportunities of circularity are well identified, the World Economic Forum estimates global adoption of CE principles would deliver cost savings of US$1trillion dollars per annum by 2025. A recent UTS:ISF study estimated an Australian CE could be worth AU$2 billion by 2025. However, current knowledge gaps constrain how CE may develop, at what scale it makes sense to close loops, and the strategies, policy mix and incentives needed to promote circularity.
For fisheries and aquaculture, CE adoption addresses waste challenges through the creation of new value chains for fish/shell waste and substitution or recycling plastics and provides co-benefits of resource efficiency, contributions to healthy aquatic eco-systems and creation of added value and new employment. Frameworks to guide ‘CE thinking’ exist e.g. Ellen Macarthur Foundation’s 10R’s and ReSOLVE (see Supplementary Material), but have not been explored, are often omitted in food innovation debates (Pagotto and Halog 2015), and opportunities for implementation within the sector are still emerging (e.g., replacement of fish-feed for abalone with wine production waste or repurposing mussel shells as high-nutrient fertiliser). The need to understand the context, opportunity and benefit of CE innovations and to identify strategic approaches to sectoral circularity at scale are apparent.
Objectives: 1. 1. Develop increased knowledge of how the concept of circular economy relates to fishing and aquaculture, including downstream activities such as post-harvest processing and packaging. 2. 2. Develop increased knowledge of how circular practices being applied in other sectors and industries relate to the fishing and aquaculture sectors and could be adopted by fishing and aquaculture businesses. This includes opportunities for fisheries/aquaculture industries to develop circular linkages with other marine and land based sectors. 3. 3. Identify opportunities that are available and areas for exploration in the short, medium and longer term to progress a circular economy for fisheries and aquaculture. 4. 4. Identify barriers to adopting circularity within the fisheries/aquaculture sector, and known strategies for addressing those barriers. Read moreRead less
Bursary To Attend The 2022 Microplastics And Seafood: Human Health Symposium In The United Kingdom - Nina Wootton
Funder
Fisheries Research and Development Corporation
Funding Amount
$9,400.00
Summary
[Produce a ‘Critical Review Paper’ to provide a potential roadmap for additional research, as well as help identify communication strategies for the seafood industry. This is a development and networking opportunity to create future relationships and collaborations]
This bursary will allow Nina Wootton to attend the microplastics and seafood symposium in Edinburgh, Scotland. The focus of the symposium will be human health aspects of microplastics in seafood. The aim is to produce a cri ....[Produce a ‘Critical Review Paper’ to provide a potential roadmap for additional research, as well as help identify communication strategies for the seafood industry. This is a development and networking opportunity to create future relationships and collaborations]
This bursary will allow Nina Wootton to attend the microplastics and seafood symposium in Edinburgh, Scotland. The focus of the symposium will be human health aspects of microplastics in seafood. The aim is to produce a critical review paper to provide a potential roadmap for additional research, as well as help identify communication strategies for the seafood industry. This is part of an international partnership between FRDC, Seafish (UK) and Seafood Industry Research Fund (USA) that will have 11 scientific experts attending along with industry. The symposium provides Australians with a unique opportunity to engage with experts and industry from around the world.
We will also visit several UK based research groups as part of our travel - we have already engaged with researchers from Plymouth Marine Laboratories, University of Plymouth and Exeter University including Professor Richard Thompson, the first researcher to identify microplastics as an issue. Objectives: 1. Attend the 'Microplastics and Seafood; Human Health Symposium' in the United Kingdom 2. To produce a ‘Critical Review Paper’ addressing microplastics in seafood and impact on human health to provide a potential roadmap for additional research and identify communication strategies for the seafood industry Read moreRead less
Bursary To Attend The 2022 Microplastics And Seafood: Human Health Symposium In The United Kingdom - Bronwyn Gillanders
Funder
Fisheries Research and Development Corporation
Funding Amount
$8,885.00
Summary
[Produce a ‘Critical Review Paper’ to provide a potential roadmap for additional research, as well as help identify communication strategies for the seafood industry. This is a development and networking opportunity to create future relationships and collaborations]
This bursary will allow Professor Gillanders to attend the microplastics and seafood symposium in Edinburgh, Scotland. The focus of the symposium will be human health aspects of microplastics in seafood. The aim is to produ ....[Produce a ‘Critical Review Paper’ to provide a potential roadmap for additional research, as well as help identify communication strategies for the seafood industry. This is a development and networking opportunity to create future relationships and collaborations]
This bursary will allow Professor Gillanders to attend the microplastics and seafood symposium in Edinburgh, Scotland. The focus of the symposium will be human health aspects of microplastics in seafood. The aim is to produce a critical review paper to provide a potential roadmap for additional research, as well as help identify communication strategies for the seafood industry. This is part of an international partnership between FRDC, Seafish (UK) and Seafood Industry Research Fund (USA) that will have 11 scientific experts attending along with industry. The symposium provides Australians with a unique opportunity to engage with experts and industry from around the world.
We will also visit several UK based research groups as part of our travel - we have already engaged with researchers from Plymouth Marine Laboratories, University of Plymouth and Exeter University including Professor Richard Thompson, the first researcher to identify microplastics as an issue. Objectives: 1. Attend the 'Microplastics and Seafood; Human Health Symposium' in the United Kingdom 2. To produce a ‘Critical Review Paper’ addressing microplastics in seafood and impact on human health to provide a potential roadmap for additional research and identify communication strategies for the seafood industry Read moreRead less
Development of Advanced Polymers from Recycled Industrial Plastics for Replacement of Virgin Resins. The main objective of this research program is to develop strategies and techniques to develop advanced polymeric materials obtained from recycled industrial plastics for replacement of virgin resins in industrial packaging. Studies show that only a very small amount of such plastic is reclaimed after industrial use. The research will include a comprehensive study of the life cycle of the indus ....Development of Advanced Polymers from Recycled Industrial Plastics for Replacement of Virgin Resins. The main objective of this research program is to develop strategies and techniques to develop advanced polymeric materials obtained from recycled industrial plastics for replacement of virgin resins in industrial packaging. Studies show that only a very small amount of such plastic is reclaimed after industrial use. The research will include a comprehensive study of the life cycle of the industrial packaging products, development of new blends of the recycled resins, and the application of these blends to manufacture good quality injection moulded and blow moulded products including new plastic pails and containers for industrial use.Read moreRead less
Linkage Infrastructure, Equipment And Facilities - Grant ID: LE0237936
Funder
Australian Research Council
Funding Amount
$100,000.00
Summary
Research facility for plastics and composites : Dynamic Mechanical Analyser and Rheometer System. The Dynamic Mechanical Analyser (DMA) and Control Stress Rheometer System is a unique set of equipment where both instruments can be run simultaneously using the same controller module. The DMA can provide quantitative and qualitative information on high spectrum of mechanical and rheological properties of materials in solid state. The Rheometer complements the DMA by providing information about pro ....Research facility for plastics and composites : Dynamic Mechanical Analyser and Rheometer System. The Dynamic Mechanical Analyser (DMA) and Control Stress Rheometer System is a unique set of equipment where both instruments can be run simultaneously using the same controller module. The DMA can provide quantitative and qualitative information on high spectrum of mechanical and rheological properties of materials in solid state. The Rheometer complements the DMA by providing information about properties of materials in liquid state. The equipment will be used both for academic research of plastic, ceramic and composite materials and for industrial projects in the areas of material processing, recycling of plastics and for building a database of material's properties. Read moreRead less
Nanostructure Design and Toughening Mechanisms of Novel Thermosets. The research will enable a new technology to manufacture a class of novel nanostructured thermosets that will impact many application areas in Australia, such as protective surface coatings, structural adhesives and composite matrix materials for aerospace and automotive, and microelectronic devices, etc. The intellectual properties and patents generated will contribute to the overall competitiveness and productivity of Australi ....Nanostructure Design and Toughening Mechanisms of Novel Thermosets. The research will enable a new technology to manufacture a class of novel nanostructured thermosets that will impact many application areas in Australia, such as protective surface coatings, structural adhesives and composite matrix materials for aerospace and automotive, and microelectronic devices, etc. The intellectual properties and patents generated will contribute to the overall competitiveness and productivity of Australia~{!/~}s R&D. They will also provide business opportunities to develop niche markets for these new and high-value added materials on a large scale in Australia so as to maximise return and create jobs. Read moreRead less
Novel injection moulded polymer substrates for solid phase applications. Solid phase organic reactions form the basis of many applications in drug design and development and medical applications. This project proposes the development of novel solid phase materials via control of novel insitu crosslinking and foaming processes and novel process molding control. This will enable more controlled large scale rapid production and detection of materials for biological and medical uses.