THE UNIVERSITY OF QUEENSLAND

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Unravelling immune signalling networks that protect vertebrates from... Category: Humanities, Arts and Social Sciences (HASS) Research

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Unleashing the power of AI: Supercharging social media campaigns against... Category: Medical Research

ARC National Competitive Grants · FY 2025 · 2025-01

Ensuring renewable energy zone stability for Australian net-zero transition. This project aims to develop an innovative data-driven modelling method for renewable generators. Currently, the stability of modern renewables can only be analysed via time-consuming scenario-based simulations, and there is a lack of effective means to holistically assess system stability. This project expects to generate for the first time clear renewable generator models through measurements and partially known information from generator manufacturers to replace the existing black-box models. Expected outcomes include a new data-driven modelling method of renewables, which will significantly benefit the energy industry by increasing power grid stability, ultimately boosting investment in and uptake of renewable technologies and products. Field of research: 4008 - Electrical Engineering Australia has committed to reaching net zero emissions by 2050 by creating geographic renewable energy zones. Reducing unstable oscillations between renewables in these zones is important to ensure safe renewable energy production and development. However, renewable generators are complex and hence very challenging to analyse their stability from a systems point of view, and we currently lack the ability to effectively assess and secure the stability of renewable energy zones. This project aims to address this problem by extracting a small amount of available generator data and transforming it into a usable system stability model. With this expected outcome, energy industries will be able to perform more advanced analysis on system stability rather than the current time-consuming case studies one at a time. This enables more effective and efficient assessment on renewable energy zone stability, decreases unplanned grid outages, and reduces cost on renewable projects, and hence energy price for consumers. The project findings will be disseminated through seminar presentations to the energy industry and social media to the general public. In the future, this project expects to provide Australian communities with economic benefit by lowering stability evaluation time and cost, with social benefit by building confidence in more stable renewable energy integration, and with commercial and environmental benefits by enabling future renewable investment and employment in Australia.

ARC National Competitive Grants · FY 2025 · 2025-01

Enabling low-toxicity perovskites for next-generation indoor photovoltaics. This project aims to design high-performance and low-toxicity perovskite semiconductors for efficient indoor light energy harvesting and conversion. By addressing the key challenges of material toxicity and device efficiency, the project is expected to unlock the full potential of low-toxicity perovskites as light absorbers for enabling efficient and practical indoor photovoltaics for various Internet-of-things devices. The advance of this renewable energy technology is expected to improve the sustainability of Australian residential lives, maintain Australia`s global competitiveness in clean energy research and contribute to Australia’s Climate Strategies and Plans by transforming to low-emission and efficient indoor power solutions. Field of research: 4016 - Materials Engineering Australian Government is targeting an emission reduction of 43% by 2023 and net zero by 2050 across the national economy. Innovations in cost-effective and energy-efficient technologies underpin the critical foundation for the achievement of this target. This research focuses on designing advanced semiconducting materials for efficient indoor light-to-electricity conversion, which can provide a promising and reliable power solution for various indoor Internet-of-things devices. By addressing the key challenges in the current state-of-the-art lead-based perovskite semiconductors, this project aims to develop high-performance lead-free perovskites for efficient indoor photovoltaics. The successful implementation of this project will significantly advance the fundamental research by expanding the knowledge base of areas of functional materials and sustainable energy, and will also enable practical uptake of the next-generation indoor photovoltaic technology for low-emission power solutions of various indoor electronics. This is well-aligned with the government`s Science and Research Priority of Energy, Australia’s Climate Strategies and Plans, and the Australian Government’s Powering Australia plan, which is expected to further bring immense economic and environmental benefits to Australia in the long run by supporting the growth of Australian industries in advanced materials and energy sectors.

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

The rules of engagement between transcription factors and cofactors Category: Humanities, Arts and Social Sciences (HASS) Research

ARC National Competitive Grants · FY 2025 · 2025-01

Acidic aerobic digestion to reduce emissions from sewage sludge. This project aims to develop a novel acidic sludge treatment technology for water utilities to reduce greenhouse gases and odour emissions from sewage sludge, a previously overlooked source in wastewater management. Through three work packages targeting critical gaps in current research, it aims to understand the biological & chemical mechanisms, optimize the operating conditions, and promote technology translation. The project is expected to provide utilities with a novel retrofitting solution that can be integrated into the existing system. The anticipated benefit is significant greenhouse gases mitigation from water industry and support it to meet net-zero-emission goal by 2050. Field of research: 4011 - Environmental Engineering The project contributes significantly to Australia's national interests by addressing crucial challenges within the water industry linked to an overlooked greenhouse gases source, sewage sludge. Australian water utilities servicing over 16 million Australians have committed to achieve net-zero operations by as early as 2030. Given the ambitious target, this initiative aligns with the national goals to combat climate change. By focusing on mitigating potent greenhouse gases like nitrous oxide and methane, which account for over 95% of the carbon footprint in wastewater treatment, the project tackles a pressing national concern. Its innovative approach to develop an acidic sludge digestion technology aligns with Australia's strategic research priorities in environmental change, fostering resilience in urban infrastructure and expanding the nation's knowledge base in cutting-edge technologies. Furthermore, the project's emphasis on industry-academic collaboration positions the Australian water industry as a leader in global efforts to combat climate change, contributing to a smooth transition into a low-carbon economy era.

ARC National Competitive Grants · FY 2025 · 2025-01

After the Future of Work: Platformised Labour in a Hotter Australia. This project aims to investigate the growing conflict between digitally-coordinated labour seen as the future of work and rising heat from climate change, which deeply impacts it but is not accounted for. This project expects to generate new knowledge about pressures on Australian workers by collecting worker stories and rethinking work using an interdisciplinary lens from media, labour, and environmental studies. Expected outcomes include a map of key climate-tech issues and a climate-aware blueprint for better work. This should provide significant benefits: integrating climate into work models and systems will support worker well-being and foster a future-ready economy in our hotter and more uncertain world. Field of research: 4701 - Communication and Media Studies This project addresses an intertwined challenge facing the next generation of Australian workers: platformisation (using digital technologies to optimise work) and climate-driven heat. Traditional work is giving way to informal and on-demand forms managed by digital technologies. Yet these models ignore the climate, placing workers in danger and enacting a heavy toll on the planet. As heat rises and heat waves become frequent, existing models prove insufficient, with workers collapsing, millions of hours lost, and estimates of 15% less GDP. The so-called future of work does not work. Drawing on my decade of research on digitally-transformed labour, this Fellowship expects to (1) identify how frictions between platformised work and climate heat impact Australian workers; and (2) blueprint a new model of work that fuses digital efficiency with ecological awareness. This interdisciplinary project innovates by grasping work as a lived experience deeply shaped by both digital technologies and climate realities. Expected benefits to Australia are economic, in offering a more resilient and future-ready work model; social in upholding worker safety and dignity; and environmental, in fostering more sustainable systems and approaches. Expected research outcomes include a dataset of worker stories, scholarly articles conceptualising this issue and advancing knowledge, a policy brief for government, and best-practice guidelines for the tech industry.

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Manipulating disturbance synchrony to regulate microbial systems Category: Humanities, Arts and Social Sciences (HASS) Research

ARC National Competitive Grants · FY 2025 · 2025-01

Reversible shielding to enhance mRNA manufacture and delivery. The manufacture of mRNA is a global priority, and rapid expansion of the mRNA industry has been enabled by advances in high-quality mRNA manufacture. However, current manufacturing methods produce mRNA that has low stability and poor delivery performance. This project aims to address these limitations by developing a new class of ultra-stable “cloaked” mRNAs (cmRNAs). Expected outcomes include cmRNAs with an improved synthetic workflow and precision control of cloaking. This synthetic strategy has the potential to transform the manufacture of mRNAs, increasing performance, stability and decreasing costs. The targeted delivery capability of the developed cmRNAs will also significantly expand the scope of applications of mRNA products. Field of research: 3106 - Industrial Biotechnology The manufacture of mRNA is a global priority. Despite the success of COVID19 mRNA vaccines, the uptake and applications of mRNA technology are currently limited by low stability. Due to its rapid degradation during manufacture, in storage and inside cells, mRNA is expensive to make, must be maintained at a low temperature and cannot remain intact in the body for more than a few days. This project seeks to overcome these issues by developing “cloaked” mRNA, in which mRNA is shielded from degradation until needed. Cloaking has the potential to significantly improve mRNA manufacturing and storage properties by reducing in-progress degradation and enabling extended storage at ambient temperatures. This project has the potential to deliver commercial and economic gains to Australia. This cutting-edge mRNA platform positions Australia as a leader in the rapidly expanding global Biomanufacturing market. Reduced reliance on cold-chain storage will improve the global reach of mRNA products and improve the cost-effectiveness of mRNA by decreasing storage and transportation costs. Notably Australian state and federal governments have made large investments to make Australia an mRNA manufacturing hub. Investment in sovereign manufacturing capabilities will also bolster resilience to global supply chain disruptions. Developing the cloaking technology in collaboration with global biotech firms will also generate additional revenue streams and strengthen Australia’s innovation sector.

ARC National Competitive Grants · FY 2025 · 2025-01

From error-prone human driving to error-free superhuman-like self-driving . Automated vehicles (AVs) without human intervention are heralded to revolutionise transportation systems, but can make roads more dangerous for other users. This project aims to rigorously assess AV interactions with human drivers and vulnerable road users, by simulating dangerous traffic dynamics through augmented virtual testing. This cost-effective approach provides a one-stop solution for large-scale AV deployment. Expected outcomes include a ground-breaking AV testing platform that will start a new paradigm for AV deployment, and an error-free motion planning method. These advances will help achieve the triple-zero goal—zero fatalities, serious injuries, and emissions—while positioning Australian AV research at the global forefront. Field of research: 3509 - Transportation, Logistics and Supply Chains Despite significant government investment, road safety in Australia has worsened, with road fatalities rising at a rate of nearly 4% since 2020. Recent data shows 1,327 road deaths, a 10.2% increase compared to the previous year, bringing the fatality rate 143% above the National Road Safety Strategy target. Traffic congestion costs are predicted to rise to $30 billion by 2030. Transportation systems, as the largest consumers of petroleum products, contribute over 80% of urban air pollution, which is a significant contributor to the global disease burden. On current trends, Australia is projected to reach only a 7% reduction in emissions by 2030, 19 percentage points short of the Paris Agreement's minimum target. Automated vehicles (AVs) are seen as a key solution to these challenges, yet significant obstacles remain for integrating them into Australia's road network. The Fellowship aims to provide a one-stop solution for testing AVs, focusing on interactions with human drivers and vulnerable road users, which is essential for their large-scale deployment. The project is expected to significantly impact policymakers, researchers, and transport authorities by supporting AV integration, improving road safety, productivity, and reducing environmental impact. Methods will be tested at RACQ test tracks and deployed with partners like Queensland’s Department of Transport and Main Roads and Brisbane City Council, preparing Brisbane for the 2032 Olympic and Paralympic Games.

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Improving frailty knowledge and empowering behaviour change via a... Category: Medical Research

ARC National Competitive Grants · FY 2025 · 2025-01

Go & grow - uncovering mechanism coupling cell proliferation and migration. This project aims to investigate how cells coordinate proliferation and migration, key processes for tissue formation. Challenging the current understanding that cell proliferation and migration are mutually exclusive, the project hypothesises that the boundary between them is fluid, allowing for greater plasticity in tissue formation. By combining advanced genomics, classical genetics, and live imaging techniques, this project will identify the molecular mechanisms enabling the switch between these processes. Expected outcomes include establishing new paradigms in cell and developmental biology, with potential advancements in biotechnology, tissue engineering, and organismal adaptability, driving economic growth while expanding knowledge. Field of research: 3101 - Biochemistry and Cell Biology This research aims to uncover how cells coordinate cell proliferation and migration during tissue formation, challenging the current belief that these processes are mutually exclusive. By studying lymphatic endothelial cells, this project seeks to define the molecular mechanisms that allow cells to rapidly transition from a proliferative to a migratory state. Understanding this cellular plasticity could transform fields such as tissue engineering, biotechnology and organismal adaptability. This research has the potential to drive economic, commercial and environmental benefits. In biotechnology, the findings could lead to innovations in developing synthetic tissues and materials that mimic natural processes. Tissue repair and regeneration is an essential process spanning both plant and animal biology. Uncovering the underlying mechanisms of this process, such as cell proliferation and movement, has broad implications beyond developmental biology. Thus, this project has applications in agriculture, such as creating crops with enhanced growth and resilience, improving plant regeneration, and optimising growth in challenging climates. By translating this knowledge beyond academia, the project will contribute to Australia's leadership in biological research, driving innovation in environmental sustainability and biotechnology. To ensure widespread impact, the research outcomes will be shared through scientific publications, industry collaborations and public outreach.

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Improving frailty knowledge and empowering behaviour change via a... Category: Medical Research

ARC National Competitive Grants · FY 2025 · 2025-01

4D printing of Liquid Metal-Reinforced Tough Hydrogel as Robotic Device. This project aims to develop advanced hydrogels—highly absorbent, shape-shifting polymeric materials—using cutting-edge 3D and 4D printing technologies. By integrating liquid metal particles into hydrogel networks, the project seeks to significantly enhance mechanical properties through innovative toughening mechanisms. Expected outcomes include the creation of robust, smart hydrogel-based robotic devices with programmable movements. This research will revolutionise hydrogel manufacturing, positioning Australia as a global leader in the field and driving innovation in key industries. Field of research: 4016 - Materials Engineering The field of advanced manufacturing and materials technology is undergoing a fourth industrial revolution driven by digital innovations like artificial intelligence and robotics. A key technology in this transformation is 3D printing, which can produce advanced soft materials for critical applications such as medical implants, soft robots, and wearable health devices. However, developing materials that are both strong and flexible while maintaining complex shapes remains a significant challenge. This project will address these challenges by innovating material design and fabrication methods to create soft and intelligent materials with enhanced properties. This project has great potential for beneficial impacts on Australia's advanced manufacturing sector, healthcare innovation, and technology-driven industries. By developing stronger and more adaptable materials, it will enable the production of affordable, high-performance products like smart wearables, flexible robotics, and advanced packaging systems. These advancements can reduce reliance on imported technologies, drive local economic growth, and position Australia as a leader in cutting-edge manufacturing, with applications extending to sectors such as healthcare, automation, and consumer goods.

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Evidence generation for a national melanoma prevention and early... Category: Medical Research

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Deciphering the gene regulatory code of ageing to set the stage for... Category: Medical Research

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Harnessing Small Extracellular Vesicles for Precision Periodontics Category: Medical Research

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

Understanding how regulatory T cells control self-reactive B cells in... Category: Medical Research

ARC National Competitive Grants · FY 2025 · 2025-01

Enabling evidence-based migration policy for the 21st century. The project aims to develop a new model to anticipate the short and long-term impacts of shifts in migration policy on the size and location of the Australian population, the composition of its labour force and the demand for housing. Using state-of-the-art microsimulation with novel administrative microdata linked to visa and citizenship status, the project is expected to set new standards in population projections and to provide a critically needed foundation for forward-looking evidence-based policy to help optimise the immigration intake and strategically plan for population ageing, labour force needs and future housing demand, with expected benefits at both the national and regional levels. Field of research: 4403 - Demography Anticipating the consequences of changes in migration policy is essential to maximise the benefits of migration. However, existing population projection models do not have migration policy testing capabilities because they do not consider visa status. This project addresses this critical need by developing a new decision-support tool, the first to include visa status and visa transitions, to project the future size, location and composition of the Australian population by key characteristics. Using ‘what-if’ scenarios, it will test four migration policy levers – volume, composition, visa conditions and labour market integration – and assess trade-offs with other policy interventions such as educational expansion and increased labour force participation. Providing a flexible tool to anticipate the consequences of policy decisions to successfully plan for a growing and ageing population under different migration scenarios has the potential to radically transform policymaking. Collaboration with three federal departments and agencies will facilitate the translation of research findings into policy to support the ongoing reform of the migration system. Economic benefits include improving projection reliability by considering migrant diversity, thus limiting the costs of over or under-forecasting future population needs, including demand for housing. Dissemination via an online simulator will help debunk migration myths, facilitate an informed debate and foster social cohesion.

ARC National Competitive Grants · FY 2025 · 2025-01

Closing the Loop for Photovoltaics: Recycling of End-of-Life Solar Panels. With global solar installations on the rise, recycling decommissioned and damaged solar panels has become urgent. This project seeks to develop an efficient recycling process to recover valuable metals, such as silver, copper, and silicon, through the use of molten salts. This approach aims to enhance recovery rates, minimise secondary waste, and lower costs compared to traditional methods. By contributing to Australia’s sustainable energy goals, this project will help divert millions of solar panels from landfill while generating economic value from recycling. The anticipated outcomes will support both the e-waste recycling industry and environmental sustainability, positioning Australia as a leader in solar panel recycling technology. Field of research: 4004 - Chemical Engineering Australia faces an escalating challenge in managing solar panel waste, with hundreds of thousands of panels anticipated to be discarded each year. Current recycling methods for valuable metals like silver rely on acid-based processes that are inefficient and generate toxic by-products. This project aims to address these issues by developing an innovative thermal recycling process that leverages low-melting or hot salts to enable efficient metal recovery with minimal waste generation and environmental impact. Partnering with Pan Pacific Recycling, the Fellow will tackle a critical gap in Australia’s capacity to recycle end-of-life solar panels, targeting high recovery rates for precious and semi-precious materials, including silver, copper, and silicon. This project presents significant economic benefits by creating value-added products from solar panel waste, helping to open new markets and support job creation within Australia’s renewable and recycling industries. In addition to reducing e-waste volumes in landfills, this project will contribute to establishing a sustainable circular economy for photovoltaics, advancing Australia’s waste reduction and environmental sustainability targets. It also aligns with commercial interests by giving e-waste recyclers a competitive advantage through improved processes and valuable output. Its impact will also extend beyond academia, with outreach to community stakeholders and dissemination of results through conferences and workshops.

ARC National Competitive Grants · FY 2025 · 2025-01

Advancing Gas Fermentation: Biological Solutions for a Net-Zero Future. Australia urgently needs innovative decarbonisation solutions to achieve its net zero emissions targets. Gas fermentation, which uses microorganisms to convert greenhouse gases into useful products, offers a sustainable solution for industries transitioning to net zero. This project aims to advance the field of gas fermentation by developing an integrated microbial synthetic consortium that co-consumes methane and CO2 from biogas and converts them into animal feeds. Successful completion will deliver a complete fish meal replacement for sustainable aquaculture, provide bioconversion technologies for the gas industry, and help Australia achieve its net-zero emissions goals while facilitating the transition to a strong bioeconomy. Field of research: 3106 - Industrial Biotechnology Australia urgently needs innovative decarbonisation solutions to reduce its reliance on fossil fuels and help meet its target of net zero greenhouse gas emissions by 2050. Gas fermentation, which uses microorganisms to convert greenhouse gases into valuable products, presents a transformative opportunity for Australia to lead in sustainable industrial practices. Gas fermentation allows converting emissions from steel manufacturing, refining, and energy production into essential commodities such as fuels, chemicals, and materials. This project aims to advance the field of gas fermentation by developing a new microbial system that utilises waste gases from industry and converts them into animal feed products. Specifically, the project seeks to deliver a sustainable fish meal replacement that can be used by the aquaculture industry. The proposed technology will not only help reduce greenhouse gas emissions but also foster a circular economy where waste is viewed as a resource rather than a liability. This can bolster Australia’s industrial competitiveness and energy security while advancing the nation’s commitment to net zero targets. The adoption of gas fermentation also promises the creation of new jobs, particularly in regional areas, by establishing new biomanufacturing industries.

GrantConnect (Australian Government grants) · FY 2025 · 2025-01

How immune cells use metabolism to respond to different threats Category: Humanities, Arts and Social Sciences (HASS) Research

ARC National Competitive Grants · FY 2025 · 2025-01

Safeguarding beef production with rapid chemical resistance tests in ticks . This project aims to develop rapid tests to manage chemical resistance in cattle ticks. The cattle tick is a major burden on Australia’s multibillion dollar beef industry and global food security. The only treatments are chemicals called acaricides, but ticks are rapidly developing resistance, severely reducing control options. Current tests for resistance are slow and costly, but as ticks evolve and adapt, informed, rapid decisions on chemical use are critical to prevent further resistance. This research will use innovative phenotyping and advanced genomics to develop rapid molecular tests for resistance. This research will benefit the economy and environment by ensuring effective chemical use and safeguarding future beef production. Field of research: 3003 - Animal Production Cattle ticks are a significant burden on global agriculture, affecting livelihoods and global food security. Chemical treatments are the only method of control, but ticks are adapting and building resistance to these chemicals, an immediate problem that requires urgent and effective solutions to protect the beef industry in Australia and globally. Current tests for chemical resistance are slow and require laboratory facilities, inhibiting testing by producers and leading to inappropriate use of chemicals, driving further resistance. In parts of South America ticks are resistant to most commercial chemicals, leaving cattle vulnerable to ticks and tick-borne disease. Thus, it is critical that Australia acts now to prevent similar levels of resistance. This project aims to develop rapid and cost-effective methods to identify cattle ticks resistant to chemical control. By deep sequencing tick genomes, the genetic changes driving resistance can be identified and used to develop flexible molecular tests for resistance. This approach will leverage the latest techniques, equipment and industry expertise to give Australian beef producers the ability to rapidly identify chemical resistance allowing targeted use of chemicals. The project is made possible through collaboration with animal health partners and government which will accelerate uptake of the rapid tests, with economic and commercial benefits for the cattle industry, animal health industry and the broader Australian economy.

ARC National Competitive Grants · FY 2025 · 2025-01

Building futures: Early learning environments for optimal child development. This study aims to identify the impact of Early Childhood Education and Care locations and environments on children’s development and learning. In partnership with Queensland’s regulatory authority, child advocates and an international architecture group we propose to undertake a detailed study of the effect of places (e.g. green sites vs shopping centre) and spaces (e.g. high vs low rise) on children's learning opportunities and development. This project aims to deliver evidence-based guidelines for physical environments in Australian Early Childhood services. The intent is to inform decisions made by the Regulatory Authority in licensing and assessment of services and, beyond, building the futures of Australia’s children. Field of research: 5201 - Applied and Developmental Psychology Australia currently invests >$13 billion per year into Early Childhood Education and Care. Ensuring this investment delivers services of sufficient quality to ensure all Australian children have positive life trajectories is a major national policy goal and the focus of recent public investigations (i.e. Productivity Commission Inquiry). In Australia over 1.4 million children attend Early Childhood Education and Care services each week. The policy vision is to extend this reach to all Australian children from birth to age 5 years. As Australia moves to universal provision, demand for services will escalate and increase the number located in non-traditional places (e.g. shopping centres) and spaces (e.g. high rise, multi-story building). Yet the effects of such places and spaces on children’s safety, health, wellbeing, learning opportunities and development is unknown. This project aims to deliver evidence-based guidelines for physical environments in Australian Early Childhood Educational and Care services. The intent is to inform decisions made by the Regulatory Authority in licensing and assessment of these services and, beyond, building the futures of Australia’s children.

ARC National Competitive Grants · FY 2025 · 2025-01

Efficient Removing Fluorinated Pollution from Complex Contaminated Matrices. This project aims to work with Chemours and qldwater to develop a magnetic ion-exchange technology capable of removing per- and polyfluoroalkyl substances (PFAS), or forever chemicals, from complex sources. PFAS contamination is a significant health and environmental issue in Australia, yet current remediation methods are often limited, particularly when co-contaminants are present. This project seeks to address these challenges by creating a robust PFAS removal technology tailored for complex water matrices. Expected outcomes include an integrated solution with proven technical, economic, and environmental benefits. This innovative approach will contribute to a PFAS-free future, safeguarding Australia’s environment and public health. Field of research: 3403 - Macromolecular and Materials Chemistry Per- and polyfluoroalkyl substances (PFAS), often called forever chemicals, are durable compounds widely used across household products and industrial applications in Australia, including non-stick cookware and firefighting foams. Their durability, however, poses a significant environmental and public health threat; PFAS accumulates over time and when consumed can lead to human health issues including cancer. PFAS contamination is widespread in Australian waters, including complex sources such as leachates, biosolids managed by qldwater members, and industrial wastewater produced at Chemours facilities. This project will develop innovative magnetic ion-exchange resins specifically designed to remove PFAS from these challenging, co-contaminant-laden sources, advancing beyond the limitations of current technologies. By targeting complete PFAS removal, the project contributes to reducing contamination and mitigating long-term environmental impacts. Positioned at the forefront of the $450 billion global PFAS remediation market, this work will enhance Australia’s leadership in PFAS management, addressing critical industry questions and offering transformative solutions. This technology marks an essential step toward a PFAS-free future, safeguarding Australia’s natural environment and public health.