{"meta":{"requested-page-number":1,"requested-page-size":20,"actual-page-size":20,"total-pages":1748,"total-size":34960,"search-description":null,"sort-by":""},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants?page%5Bnumber%5D=1&page%5Bsize%5D=20","first":"http://dataportal.arc.gov.au/NCGP/API/grants?page%5Bnumber%5D=1&page%5Bsize%5D=20","last":"http://dataportal.arc.gov.au/NCGP/API/grants?page%5Bnumber%5D=1748&page%5Bsize%5D=20","prev":"http://dataportal.arc.gov.au/NCGP/API/grants?page%5Bnumber%5D=1&page%5Bsize%5D=20","next":"http://dataportal.arc.gov.au/NCGP/API/grants?page%5Bnumber%5D=2&page%5Bsize%5D=20"},"data":[{"type":"grants","id":"FT260100001","attributes":{"code":"FT260100001","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The University of Melbourne","announcement-admin-organisation":"The University of Melbourne","grant-summary":"A novel integrated framework to study bacterial metabolism . This project will decipher how bacteria maintain metabolic homeostasis. Using an integrated approach that combines insights from enzyme chemistry with multi-omics datasets, it will study how bacteria regulate nutrient use to balance energy production and biosynthesis under changing conditions. The outcomes will include textbook-level knowledge of bacterial metabolism, revealing weak points in the metabolic network, and allowing us to explain and predict how bacteria adapt to nutrient stress. This innovative approach will set a new standard for linking how enzymes work with how cells behave. In the long term, the insights will inform antibiotic development and microbial engineering, strengthening Australia’s health and biotech capabilities.","lead-investigator":"Dr Ivanhoe Leung","current-funding-amount":1166563.0,"announced-funding-amount":1166563,"grant-status":"Not yet accepted","primary-field-of-research":"3404 - Medicinal and Biomolecular Chemistry","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Bacteria are essential to life on Earth, sustaining ecosystems, driving industrial processes and affecting human health. However, we still know very little about how bacteria control the use of nutrients that keep them alive. This lack of understanding limits our ability to harness their potential and manage their risks. This project will address this gap by uncovering how the bacteria that cause tuberculosis manage nutrient allocation and use under changing conditions. Understanding these processes will help Australia tackle challenges across multiple sectors. In health, it could lead to new strategies for treating infections such as tuberculosis, which disproportionately affects indigenous and migrant communities. In agriculture, it could contribute to controlling tuberculosis affecting livestock, potentially benefiting animal health, improving farming productivity and supporting an industry vital to Australia. In biotechnology, potential advances include sustainable manufacturing by improving microbial systems for water treatment, waste recycling and bio-based manufacturing. This project will also provide world-class training to the next generation of scientists. The results will be shared beyond academia through partnerships with industry, open-access data and public engagement. It will strengthen Australia’s capabilities in health, sustainability and biotechnology, while deepening our understanding of the fundamental biology that underpins these national priorities."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100001"}},{"type":"grants","id":"FT260100002","attributes":{"code":"FT260100002","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The University of New South Wales","announcement-admin-organisation":"The University of New South Wales","grant-summary":"Climate change of the future constrained by the deep past. Future projections of climate change are similar to greenhouse conditions that the Earth last experienced more than 5 million years ago. These past greenhouse worlds had strong polar warming, which is not accurately reproduced by climate models. This project aims to improve simulations of past climate change that represent analogues of future climate change under medium and high emissions scenarios. Expected outcomes include improved paleoclimate reconstructions, more accurate polar warming and ocean circulation, and better constraints on future climate change. These outcomes should improve Australia’s capacity in climate modelling, and an improved understanding of cloud radiative forcing in past and future climates.","lead-investigator":"Dr David Hutchinson","current-funding-amount":1005016.0,"announced-funding-amount":1005016,"grant-status":"Not yet accepted","primary-field-of-research":"3709 - Physical Geography and Environmental Geoscience","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Climate change is one of Australia's most significant challenges, which affects our environment, health, economy and security. We rely on climate model projections to give accurate estimates of our long-term future, so that we can plan for, mitigate and adapt to future climate scenarios and their impact on society. Climate models are generally tested and tuned against historical observations of climate and weather. This means that they are not as well-tested or as accurate when compared with long-term geological records. However, future climate change scenarios are likely to resemble warm climates of the past, meaning it is crucial to be able to accurately explain and model past warm climates to give confidence in future projections. This project is expected to improve our understanding of past warm climates, especially in modelling the strong polar warming that is found in geological records. These outcomes will help to better understand future climate change, and the impact of enhanced polar warming on the ice sheets."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100002"}},{"type":"grants","id":"FT260100003","attributes":{"code":"FT260100003","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The University of New South Wales","announcement-admin-organisation":"The University of New South Wales","grant-summary":"Nitrate-to-Ammonia Conversion for Circular Nitrogen Management. This project aims to develop a biological-chemical process to transform nitrate, a widespread pollutant, into valuable ammonia. Ammonia plays a vital role in food production and is increasingly recognised as a potential clean fuel. The project will investigate the microbial mechanisms driving nitrate-to-ammonia conversion and design an integrated treatment system to recover ammonia from nitrate-laden waste streams. Expected outcomes include uncovering fundamental microbial mechanisms and developing an innovative biochemical process for green ammonia recovery, with reduced nitrate pollution. The benefits include reduced environmental impacts and new opportunities for circular economy practices in agriculture, energy and the environment.","lead-investigator":"A/Prof Min Zheng","current-funding-amount":1328307.0,"announced-funding-amount":1328307,"grant-status":"Not yet accepted","primary-field-of-research":"4011 - Environmental Engineering","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Ammonia is one of the most important chemicals in Australia’s economy, underpinning agriculture and increasingly recognised as a potential clean fuel in the energy sector. However, almost all ammonia today is produced by the Haber–Bosch process, which is highly energy-intensive and contributes substantially to global carbon dioxide emissions. At the same time, nitrate pollution from agriculture, industry, and wastewater poses ongoing risks to Australia’s waterways, ecosystems, and public health. This project directly addresses these two challenges by creating a new pathway to recover green ammonia from nitrate waste streams. The process will transform nitrate, currently managed as a costly pollutant, into a valuable ammonia product. If successful, the technology will reduce energy consumption, lower greenhouse gas emissions, and support Australia’s transition to a circular economy. It will also help reduce the environmental and social impacts of nitrate pollution, benefiting communities by protecting water quality. To maximise real-world impact, research outcomes will be promoted through industry partners, government agencies, and water utilities. Public communication will include workshops, demonstration projects, and outreach through media and community engagement programs. These activities will enhance awareness, accelerate technology translation, and support adoption by sectors critical to Australia’s clean energy and environmental sustainability goals."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100003"}},{"type":"grants","id":"FT260100005","attributes":{"code":"FT260100005","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The Australian National University","announcement-admin-organisation":"The Australian National University","grant-summary":"Climate risks of a slowdown in Southern Ocean heat and carbon uptake. The Southern Ocean absorbs much of the excess heat and carbon released by human activity, slowing atmospheric warming and moderating extreme weather. However, there is a risk these ocean sinks of heat and carbon are not secure and could slow down as the ocean warms and becomes more acidic. Climate model projections are highly uncertain, which complicates adaptation planning. Using Australia’s next-generation ocean model, this project will develop new fundamental understanding of the complex ocean processes that control how the Southern Ocean takes up and stores heat and carbon. This will deliver more reliable projections of future climate and sea level, informing Australia’s planning for climate adaptation and coastal resilience.","lead-investigator":"Dr Adele Morrison","current-funding-amount":1160364.0,"announced-funding-amount":1160364,"grant-status":"Not yet accepted","primary-field-of-research":"3708 - Oceanography","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"The Southern Ocean absorbs much of the excess heat and carbon released by human activity, acting as a crucial buffer of climate change and slowing atmospheric warming. However, there is a risk that this buffering capacity may not be secure. As the ocean warms and becomes more acidic, its absorption of heat and carbon could slow down this century and amplify warming of the atmosphere. Reliable projections of future climate are essential for national planning, yet climate models differ widely in how much heat and carbon they predict the Southern Ocean will absorb. \nThis project will use Australia’s next-generation ocean model to develop fundamental understanding of the processes that govern how the Southern Ocean takes up, stores, and releases heat and carbon. It will examine how circulation, mixing, and fine-scale flows interact to shape this storage, how long heat and carbon remain sequestered, and how these processes respond to future climate change. \nBy reducing uncertainty in projections of climate and sea-level rise, the project will directly support Australia’s climate adaptation strategies and coastal resilience. This will benefit the many sectors of society reliant on accurate medium- and long-term projections, including critical infrastructure, cultural heritage and ecosystem services. Results will be translated and shared with community, industry and government stakeholders through animations, public talks and policy briefings."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100005"}},{"type":"grants","id":"FT260100006","attributes":{"code":"FT260100006","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"Monash University","announcement-admin-organisation":"Monash University","grant-summary":"New Photochemical Strategies for Chemical Synthesis. This project aims to discover new light-driven catalytic strategies for advanced chemical synthesis. By integrating photochemical activation with precisely engineered auxiliaries and transition-metal catalysts, this project will deliver new synthetic technologies that employ inexpensive, abundant chemical feedstock such as carboxylic acids and olefins to rapidly generate molecules of increasing complexity and value. Expected outcomes include transformative advances in how chemists approach the design and synthesis of complex molecules, supporting innovation in the agricultural, pharmaceutical and materials sectors, and the training of highly skilled research scientists that strengthen Australia’s capacity in synthesis and catalysis. ","lead-investigator":"Dr Daniel Priebbenow","current-funding-amount":1160764.0,"announced-funding-amount":1160764,"grant-status":"Not yet accepted","primary-field-of-research":"3405 - Organic Chemistry","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"The chemical and pharmaceutical sectors are vital to Australia’s economy, contributing over $38 billion annually and supporting a large, highly skilled workforce. However, many existing manufacturing processes remain energy-intensive and environmentally unsustainable long term. This project will develop innovative catalytic technologies that harness renewable visible light to drive efficient and selective chemical transformations. These new methods will reduce costs, energy use, and waste generation across chemical synthesis and manufacturing programs. By enabling the design and synthesis of molecules that are inaccessible using existing technologies, this research will directly advance drug discovery, materials development, and chemical biology, facilitating the creation of compounds with novel properties and functions. These outcomes will drive innovation across the agrochemical, pharmaceutical, and materials sectors, providing cleaner, safer, and more sustainable routes to high-value chemicals. Engagement with industry and research partners throughout this project will ensure the rapid translation of new discoveries into commercially relevant applications. This Future Fellowship will also strengthen national research capability by training highly skilled scientists and consolidating Australia’s leadership in sustainable chemical synthesis and advanced manufacturing."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100006"}},{"type":"grants","id":"FT260100014","attributes":{"code":"FT260100014","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"Deakin University","announcement-admin-organisation":"Deakin University","grant-summary":"Market and Welfare Implications of Biased Beliefs. Markets work well when people read signals—prices, reviews, labels—correctly. This project aims to explain when and why people misread those signals, and how to fix it. The project expects to generate new knowledge by developing and experimentally testing behavioural models of how individuals form and update beliefs. Expected outcomes include new economic frameworks to quantify the impact of distorted beliefs for auctions, negotiations, and firm pricing. These frameworks should yield substantial economic and social benefits by providing new policy instruments to help markets convey information more accurately, such as quality certification standards and transparent advertising rules, thereby supporting fairer and more efficient markets.","lead-investigator":"Prof Dr Antonio Rosato","current-funding-amount":1329808.0,"announced-funding-amount":1329808,"grant-status":"Not yet accepted","primary-field-of-research":"3801 - Applied Economics","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"This project examines how people form and update beliefs in everyday economic situations, and why they often misinterpret key signals like prices, product reviews, or labels. By combining behavioural insights with economic theory and experimental studies, it will pinpoint when these misread signals lead to problems in markets—such as paying too much at auctions, failing to reach a deal in negotiations, or undermining the value of product certifications. Understanding these belief errors is crucial as they can cost Australians money, reduce fair competition, and erode trust. For example, if consumers misunderstand a high price as a guarantee of quality or put too much faith in an online review, they might overpay or select the wrong product. The findings will help regulators like the Australian Competition and Consumer Commission (ACCC) and agencies such as the Australian Government's Behavioural Economics Team (BETA) craft stronger consumer protection policies and clearer pricing guidelines. Industry can also benefit by learning to present information in ways that consumers can easily understand, leading to more informed choices and less wasteful spending. Importantly, the project will develop simple, practical tools-—like improved product labels or clearer disclosure rules—to help people make better decisions. All results will be shared widely through workshops and open-access publications, ensuring policymakers, businesses, and the public can benefit from the findings."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100014"}},{"type":"grants","id":"FT260100021","attributes":{"code":"FT260100021","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"Swinburne University of Technology","announcement-admin-organisation":"Swinburne University of Technology","grant-summary":"Families, Housing Precarity and Generational Inequalities. This study explores how Australian family lives are being reshaped by the housing crisis. Family homelessness, housing precarity and constrained family and housing aspirations affect people of all ages, across generations. Implications for everyday family lives and family and housing coping strategies are under-explored as are wider impacts on society and the economy. This pioneering study uses longitudinal mixed methods, comparative analysis and co-design with lived experience experts to develop novel evidence about housing challenges facing diverse families, and explore solutions: finance, assistance and tenure options and dwelling alternatives. It will inform policy and industry change, leading international innovation in family housing.","lead-investigator":"Prof Wendy Stone","current-funding-amount":1329808.0,"announced-funding-amount":1329808,"grant-status":"Not yet accepted","primary-field-of-research":"4407 - Policy and Administration","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"More Australian families with children and groups such as older single women are at risk of homelessness. Strains from insecure housing appear at key points of family change: childbirth, caring, young adults leaving home, partnering, separation, and ageing. Across income levels, cultural backgrounds and regions, more families are finding housing aspirations unmet and generational life chances limited by housing precarity. They adapt in various ways, with unequal gender, generational and family impacts. The nexus between family life and housing is changing in ways that are not yet well understood. This Fellowship pioneers Australia’s first national mixed-method, longitudinal, and multi-scalar family–housing research program, bringing lifecourse and comparative insight to how evolving housing systems intersect with diverse family lives. It conceptualises and quantifies family-related housing precarity using longitudinal and novel survey data, analyses systems shaping family-housing interactions and illuminates family strategies and system adaptations emerging in response. Through co-production with lived-experience and cross-sector stakeholders, it will generate evidence-based innovation to help ensure the Australian Government’s $33 billion housing investment delivers equitable, diverse, and sustainable benefits—reducing inequalities, supporting social cohesion, and strengthening national wellbeing. Impact will be amplified via wide academic, community and media dissemination."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100021"}},{"type":"grants","id":"FT260100025","attributes":{"code":"FT260100025","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The University of New South Wales","announcement-admin-organisation":"The University of New South Wales","grant-summary":"Spatially Reconfigurable Antenna Arrays for High-Speed 6G Wireless Networks. This project aims to advance sixth-generation (6G) wireless networks by leveraging revolutionary spatially reconfigurable antenna arrays. It focuses on establishing fundamental communication theory and developing pragmatic resource allocation strategies to maximise data rates. Current fixed-position antenna arrays cannot adapt to surging data demand, leaving networks congested and inefficient. The proposed innovations will deepen knowledge in high-speed communications, significantly improve network performance and reduce operational costs. Aligning with Australia’s List of Critical Technologies, the outcomes will strengthen Australia’s 6G industry, enhance productivity and support its leadership in information and communications technology.","lead-investigator":"A/Prof Derrick Wing Kwan Ng","current-funding-amount":1307284.0,"announced-funding-amount":1307284,"grant-status":"Not yet accepted","primary-field-of-research":"4006 - Communications Engineering","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Australia’s telecommunications industry is a cornerstone of the economy, generating tens of billions of dollars each year and supporting health, education, agriculture and business. Yet this industry faces a pressing challenge: mobile data traffic is expected to grow more than ninefold by 2030 compared with 2020, posing risks of network congestion, higher consumer costs and slower services. Today’s fixed-position antennas cannot adapt to this demand, leaving networks struggling to keep pace. This project addresses that gap by developing future 6G wireless networks powered by spatially reconfigurable antenna arrays. Unlike traditional antennas, these can reposition and reorient in real time, ensuring faster and more efficient wireless services. The outcomes will reduce operating costs for providers, support more affordable wireless connectivity for households, deliver consistent coverage to regional communities and strengthen Australia’s competitiveness in global information and communications technology markets. They will also enable transformative applications such as remote healthcare, precision farming and immersive education. To maximise national benefit, findings will be shared widely through public talks, media engagement and social platforms, alongside workshops with industry, government and community stakeholders. These pathways will accelerate adoption, attract investment and strengthen Australia’s position as a leader in sustainable, world-class 6G technologies."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100025"}},{"type":"grants","id":"FT260100028","attributes":{"code":"FT260100028","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"University of Technology Sydney","announcement-admin-organisation":"University of Technology Sydney","grant-summary":"A Unified Framework for Next-Generation High Density Power Converters. A key limitation in next-generation power electronics is the lack of a unified framework that integrates devices, passives, thermal management, EMI & control. This project aims to develop a multi-physics framework for next-generation power converters by combining circuit architectures, magnetics, thermal pathways, packaging &  control in one co-design flow. Expected outcomes include new knowledge from advanced modelling & benchmarking of electro-thermal & electromagnetic interactions, along with novel architectures, validated models & open benchmarking tools. This will enable compact, efficient, reliable converters for energy, transport, aerospace & digital infrastructure while enhancing Australia’s leadership in clean energy technologies.","lead-investigator":"A/Prof Yam Siwakoti","current-funding-amount":1329808.0,"announced-funding-amount":1329808,"grant-status":"Not yet accepted","primary-field-of-research":"4009 - Electronics, Sensors and Digital Hardware","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Australia’s shift to clean energy, electric vehicles, and advanced digital infrastructure relies on power converters that are efficient, compact, and reliable. However, current design methods are fragmented, making it difficult to create the next generation of converters needed for these technologies. This project will develop a new, unified approach to designing power converters, bringing together electrical, thermal, and magnetic aspects into a single, easy-to-use framework.\n\nBy making converter design faster, more accurate and more reliable, this research could help Australian industries—such as energy, transport, aerospace, and defence—reduce costs, improve competitiveness and support the transition to cleaner technologies. Environmentally, more efficient converters mean less energy waste and lower emissions, helping Australia meet its climate goals. Socially, the project could strengthen the resilience of our infrastructure, improve energy security, and create opportunities for training the next generation of skilled workers.\n\nTo ensure these benefits reach beyond academia, the project will share its tools and findings openly with industry, government, and the wider community. This includes developing user-friendly design tools, holding workshops and working with partners to encourage adoption and real-world impact. In this way, the project supports Australia’s national priorities for clean energy, advanced manufacturing, and a skilled workforce.\n"},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100028"}},{"type":"grants","id":"FT260100040","attributes":{"code":"FT260100040","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"Flinders University","announcement-admin-organisation":"Flinders University","grant-summary":"Transforming Portable Magnetic Resonance through Molecular Innovation. This project aims to solve the problem of low sensitivity in compact magnetic resonance instruments by developing new chemical strategies to enhance detection at low magnetic fields. It expects to generate new knowledge by designing molecules that improve signal strength, eliminating the need for powerful magnets and costly cooling systems. Expected outcomes include improved sensing of chemicals relevant in agriculture, environmental monitoring and manufacturing. This should provide significant benefits by improving the performance of compact, affordable instruments for detecting environmental contaminants and compounds used to verify product quality, supporting national priorities in environmental resilience and advanced manufacturing.","lead-investigator":"Dr Philip Norcott","current-funding-amount":1006904.0,"announced-funding-amount":1006904,"grant-status":"Not yet accepted","primary-field-of-research":"3405 - Organic Chemistry","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"This project will develop innovative chemical methods to dramatically enhance the sensitivity of magnetic resonance, the technology behind MRI and chemical sensors. It will enable devices to be smaller, cheaper, and more portable by boosting performance at low magnetic fields, which are safer and more affordable but currently less sensitive.\nTraditional scanners are large, expensive, and require special cooling, limiting their use in environmental monitoring, quality assurance, and rural healthcare. This research addresses that gap by enhancing compact, low-field devices for improved detection of soil and water contaminants, monitoring chemical residues in agriculture, manufacturing and forensics, and supporting medical imaging in remote and emergency settings.\nThe project will strengthen Australia’s capacity to deliver more versatile diagnostic tools, improved food and water monitoring and enhanced manufacturing efficiency, aligning with national priorities in health, environmental resilience, and advanced manufacturing. By reducing reliance on imported helium used in traditional scanners, it will also bolster sovereign capability and supply chain resilience.\nResearch translation will be driven by strategic engagement with end-users across agriculture, environmental monitoring, and manufacturing. Innovations will be communicated through sector-specific forums and tested in real-world conditions via collaborative partnerships, ensuring relevance, uptake and long-term impact."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100040"}},{"type":"grants","id":"FT260100048","attributes":{"code":"FT260100048","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The University of New South Wales","announcement-admin-organisation":"The University of New South Wales","grant-summary":"A universal platform for DNA backbone functionalisation. DNA modification for biotechnology and nanoscience is hindered by expensive, time-consuming and highly specialised chemistry. This project will develop a platform for the universal attachment of diverse and functional building blocks to single-stranded DNA, editing the nucleic acid backbone rather than the nucleobases. This method will be cheaper, simpler and faster than existing solution- or solid-state technologies. Expected outcomes are the streamlined synthesis of functionalised DNA strands for biomaterials, sensing, and nanotechnology; accelerated biotechnology research through the eased accessibility of modified DNA; and the democratisation of functional DNA structures for nanomanufacturing, materials, and bioscience sectors.","lead-investigator":"Dr Felix Rizzuto","current-funding-amount":1166016.0,"announced-funding-amount":1166016,"grant-status":"Not yet accepted","primary-field-of-research":"3403 - Macromolecular and Materials Chemistry","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"This Fellowship will develop chemistry for the universal attachment of functional molecules to the DNA backbone, transforming the use of nucleic acids in biotechnology, sensing, and advanced materials. Current modification technologies rely on expensive, bespoke chemistries that limit access and slow innovation. This Fellowship will develop a new platform that provides simple, low-cost, and scalable routes to produce functionalised DNA strands quickly using standard laboratory infrastructure.\n\nBy enabling affordable, high-throughput DNA modification, this Fellowship will accelerate the development of smart diagnostics, sensors, and nanotechnologies, supporting Australia’s sovereign capacity in nucleic acid manufacturing, synthetic biology, and bioengineering. The Fellowship outcomes align directly with Australia’s National Science and Research Priorities (2024) in 'Building a Secure and Resilient Nation' and with the List of Critical Technologies in the National Interest (2023) under 'Advanced Manufacturing' and 'Biotechnology'.\n\nThe global nucleic acid synthesis market was valued at US$11 billion in 2025 and is projected to be $25 billion by 2030. This Fellowship will harness this growth to position Australia as a global leader in DNA chemistry. It will build new international and industry partnerships, train a skilled workforce in cutting-edge DNA functionalisation, and strengthen the nation’s biotechnology capacity, innovation pipeline, and economic competitiveness."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100048"}},{"type":"grants","id":"FT260100049","attributes":{"code":"FT260100049","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The Australian National University","announcement-admin-organisation":"The Australian National University","grant-summary":"New geometry-driven statistics tools tuned to reveal vital geological clues. The project aims to develop new statistical methods to uncover hidden geological signals by extracting the most relevant information from noisy geoscience databases with complex structures. This project is at the interface between mathematical statistics, geophysics and geochemistry and it will integrate cutting-edge concepts from all three fields to generate new knowledge. These advances in knowledge will lead to an enhanced ability to discriminate natural events such as earthquakes from clandestine nuclear tests, and by doing so support Australia’s commitment to the comprehensive nuclear test ban treaty. Other outcomes are improved methods for identifying previously undetected critical mineral deposits which is a national priority. ","lead-investigator":"A/Prof Janice Scealy","current-funding-amount":1329806.0,"announced-funding-amount":1329806,"grant-status":"Not yet accepted","primary-field-of-research":"4905 - Statistics","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"This project will develop new software specifically designed to analyse complex geoscience databases, focusing on two key issues: better detection of nuclear tests and critical mineral deposits. Outcomes will provide significant economic, environmental and social benefits by improving our security against nuclear threats and ensuring Australia’s supply of critical strategic minerals. The 1996 Comprehensive Nuclear-Test-Ban Treaty endorsed by Australia theoretically put a stop to all nuclear bomb testing worldwide. However, the 3 major nuclear powers (China, Russia and the USA) appear to be preparing for nuclear testing again. In this context, it is essential for Australia to rapidly monitor nuclear testing. This project will develop improved explosion monitoring software, capable of detecting covert, underground nuclear tests. Australia’s 2024-25 Federal budget included $566 million for Geoscience Australia (GA) to map the nation's critical minerals, needed for the clean energy transition to a net zero future. This project will deliver the necessary software to analyse GA’s geochemistry data, Australia’s magnetic field records and other databases.  Better analysis of these databases will facilitate critical mineral discovery. The outcomes will be shared, disseminated and adopted through an online repository of open-source R and Python tools, and promoted via collaboration with GA as well as national and international networks of users from research, government and industry."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100049"}},{"type":"grants","id":"FT260100053","attributes":{"code":"FT260100053","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The University of Sydney","announcement-admin-organisation":"The University of Sydney","grant-summary":"Activating archived ancestral knowledge for Warlpiri women's ceremonies. This project aims to support the revitalisation of Warlpiri women's song traditions by uncovering how archival resources can be used to develop targeted action plans for intergenerational transmission of song knowledge and practices. In collaboration with Warlpiri women and Central Australian organisations, the project will investigate generational shifts to learning songs and develop methods and resources for their maintenance through an innovative and reproducible model for revitalisation of Indigenous song and dance practices. This should provide significant benefits in ensuring that this knowledge and these practices are maintained across generations as a vital part of Australia's unique national and cultural identity.","lead-investigator":"Dr Georgia Curran","current-funding-amount":1167198.0,"announced-funding-amount":1167198,"grant-status":"Not yet accepted","primary-field-of-research":"4501 - Aboriginal and Torres Strait Islander Culture, Language and History","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Aboriginal and Torres Strait Islander cultures are critical to Australian national identity and it is imperative that these the ceremonial song traditions at the heart of culture are recognised and supported. For Warlpiri women living in communities across the Tanami desert region of Central Australia, the ceremonies that have been passed on to them through generations are vital to their cultural identity and well-being. Yet there is a concern amongst present day Warlpiri women for the cultural health of future generations as these songs are not being passed on to younger generations as effectively as they were in past eras. This project will address a key research gap in determining how archived materials can be used for revitalisation so that old songs, dances and designs can form active parts of vibrant contemporary ceremonies. It will answer new questions about contemporary song learning and collaborate with local archival, educational and community arts organisations to develop targeted strategies to enhance intergenerational transmission. Through development of a reproducible model for revitalisation of Indigenous song and dance traditions this project will extend to benefit similarly culturally vulnerable communities and will provide benefits to Australian society by ensuring Australian rich Indigenous cultural identity is kept strong and can inform cultural policy. "},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100053"}},{"type":"grants","id":"FT260100060","attributes":{"code":"FT260100060","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"University of Technology Sydney","announcement-admin-organisation":"University of Technology Sydney","grant-summary":"Death by Corporation: Criminal Law, Culture and Homicidal Corporations. Corporations kill on a scale that far exceeds those caused by individuals, yet prosecutions for corporate homicide are exceedingly rare. This project aims to challenge the failure to conceptualise corporate killings as unlawful homicides. By employing a transdisciplinary approach, the project will critically analyse legal and cultural conceptualisations of corporate killings to address the obstacles preventing the criminal liability of corporations. The intended outcome is to present a compelling argument of how corporations can and should be prosecuted for homicide, leading to significant legal, economic and social benefits by prohibiting and deterring corporate homicides specifically and corporate harms more broadly. ","lead-investigator":"Prof Penny Crofts","current-funding-amount":1329001.0,"announced-funding-amount":1329001,"grant-status":"Not yet accepted","primary-field-of-research":"4804 - Law In Context","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"In Australia and globally corporations kill with products and practices on a scale vastly exceeding homicides caused by individuals eg approximately 4,000 Australians die from asbestos related disease each year. Yet corporations are rarely, if ever, prosecuted for homicide. These deaths cause grief to victims and their families, and have long-term economic and social costs, as corporations often externalise harms, leaving individuals and governments to bear costs such as health care and environmental clean-ups. Given that homicide is a fundamental concept in criminal law, and how widespread these slayings are, criminal law should be applied, but it is as though we cannot even imagine it. This reflects a broader failure to imagine the corporation as criminal, shown in limited law scholarship on corporate deaths. In the absence of criminal law, corporations undertake a cost benefit analysis of harms, including death, normalising them as acceptable costs of business. In contrast, criminal law conveys that killing is prohibited and morally unacceptable. By examining corporate homicide through the lens of philosophies of wickedness and horror, this project provides a pragmatic, principled and imaginative framework justifying the prosecution of corporations for manslaughter or murder. Outcomes shared with law practitioners may lead to a greater ability to hold corporations responsible for wrongdoing and, by deterring harmful actions, a decrease in harms caused by corporations."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100060"}},{"type":"grants","id":"FT260100069","attributes":{"code":"FT260100069","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"La Trobe University","announcement-admin-organisation":"La Trobe University","grant-summary":"Breaking the Bacterial Barrier by Selective Membrane-Active Peptides. This project aims to develop new and efficient methods for the rapid molecular design of membrane-active peptides that can target specific bacterial membranes. These methods are expected to overcome the challenges of high costs of production, time-consuming synthesis, instability, and determining membrane activity, which have limited their development to date. This novel approach is expected to create peptides that target specific membranes in various bacteria. This should benefit Australian research and industry by establishing an efficient molecular design system that can be applied to peptide discovery for diverse purposes and by commercialising novel membrane-active peptides. ","lead-investigator":"Dr Wenyi Li","current-funding-amount":1165568.0,"announced-funding-amount":1165568,"grant-status":"Not yet accepted","primary-field-of-research":"3101 - Biochemistry and Cell Biology","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Bacterial membranes provide a barrier between cell contents and their environment. The ability to specifically disrupt or penetrate these membranes has huge potential in industrial, research and health settings. For example membranes can be targeted for destruction, signalling, release of compounds of interest or to study membrane biophysics. Discovering membrane-active peptides remains challenging and time-consuming.\nThis project aims to develop novel technologies that enable the rapid and high throughput design of membrane-active peptides- small chains of amino acids that can specifically interact with membranes of various types. My Fellowship research will enable the future development of approaches to target bacteria of interest. This will have broad applications including food preservation, biofilm control, crop protection and veterinary health management. The resulting compounds and methods will provide benefits to Australia through their future commercialisation for anti-microbial use in agricultural, veterinary and human diseases. \nFindings will be communicated to target stakeholders through events such as the University Partner Showcase, the annual US Bio conference and advocacy groups such as AusBiotech to maximise translation and to seek new opportunities with non-academic partners. We will also disseminate our findings to the public via the media, utilising channels such as La Trobe media, Social media, team website, and podcasts.\n"},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100069"}},{"type":"grants","id":"FT260100070","attributes":{"code":"FT260100070","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"Queensland University of Technology","announcement-admin-organisation":"Queensland University of Technology","grant-summary":"Broad pH-Range Redox Flow Batteries with Sustainable Fluorine-Free Membrane. This project aims to develop highly ion-selective, sustainable fluorine-free membranes for redox flow batteries – an essential technology for large-scale renewable energy storage. By precisely tuning the membranes’ microstructure to create efficient ion pathways, the project will deliver robust, sustainable, durable, high-performance membranes compatible with both acidic and alkaline redox flow batteries. This work will provide deep insights into polymers design and synthesis, thereby guiding the future optimization of membranes for different redox flow batteries. This project will significantly promote Australia's leadership in green energy storage and manufacturing, supporting Australia’s commitment to achieve net-zero emissions by 2050.","lead-investigator":"Dr Jiaye Ye","current-funding-amount":997149.0,"announced-funding-amount":997149,"grant-status":"Not yet accepted","primary-field-of-research":"4016 - Materials Engineering","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"This project will develop a super-duper membrane used to increase the lifespan and efficiency of a large-scale energy storage batteries to store electricity generated from renewable sources such as wind and solar power, to address Australia’s urgent need for sustainable, cost-effective, and environmentally responsible grid-scale energy storage solutions. The project aims to fill a critical research gap by developing cost-effective and high-performance fluorine-free alternative membranes that are scalable, durable, sustainable, and locally relevant. Economically, this research supports the local manufacturing of key materials for clean energy, reduces reliance on foreign imports for such materials, and creates jobs and wealth within high-tech industries. Environmentally, it eliminates hazardous fluorinated waste streams, enabling cleaner lifecycle management of large-scale batteries. Socially and commercially, reliable and affordable long-duration energy storage will strengthen renewable energy integration, reduce electricity costs, and support Australia’s transition toward net-zero emissions. A series of educational and outreach activities will be conducted including to disseminating research findings through curricula to graduate students, undergraduates, and even younger students; engaging in free lectures for communities and remote regions to publicize research outcomes; and sharing research summaries via short videos online to enhance dissemination effectiveness."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100070"}},{"type":"grants","id":"FT260100074","attributes":{"code":"FT260100074","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"Swinburne University of Technology","announcement-admin-organisation":"Swinburne University of Technology","grant-summary":"Tuning a Galactic Gravitational-Wave Detector using Pulsar Scintillation. This project aims to improve the detection of ultra-low-frequency gravitational waves by developing new models that link pulsar radio-wave scintillation to noise processes in the interstellar medium through hierarchical statistical inference. The project expects to generate new knowledge about how plasma in the interstellar medium affects pulsar signals, using innovative techniques that transform interstellar scattering from a source of noise into a calibration tool. Expected outcomes include advanced software for precision gravitational-wave detection and improved characterisation of the interstellar medium. This will enhance Australia’s leadership in radio astronomy and strengthen the scientific return from the Square Kilometre Array.","lead-investigator":"Dr Daniel Reardon","current-funding-amount":985236.0,"announced-funding-amount":985236,"grant-status":"Not yet accepted","primary-field-of-research":"5101 - Astronomical Sciences","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Australia is investing heavily in the Square Kilometre Array (SKA), the world’s largest radio telescope, to explore the universe through radio waves and train the next generation of scientists and engineers. One barrier to its success is that signals from pulsars — rapidly rotating neutron stars used to detect low-frequency gravitational waves — are distorted as they pass through the interstellar medium. This project will overcome that problem by linking the twinkling, or \"scintillation,\" of pulsar radio signals to the distortions that affect gravitational-wave analyses, through advanced hierarchical statistical models.\n\nBy transforming a source of interference into a source of precision, the project will strengthen Australia’s capacity to detect gravitational waves from merging supermassive black holes, a major scientific frontier. The same techniques will also improve understanding of the Sun’s plasma environment, benefiting national space-weather forecasting that protects communications, power grids, and satellite systems.\n\nTo maximise public benefit, all software and results will be openly released, accompanied by public talks, workshops, and accessible science articles. Collaborations with international radio telescopes will showcase Australia’s leadership in gravitational-wave astronomy and solar plasma physics, ensuring that national investment in the SKA delivers lasting scientific, technological, workforce, and cultural returns for Australia and its partners."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100074"}},{"type":"grants","id":"FT260100078","attributes":{"code":"FT260100078","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The University of Western Australia","announcement-admin-organisation":"The University of Western Australia","grant-summary":"Costs and unexpected benefits of sickness and motivational presenteeism. 58% of employees in Australian organisations are at work, but not working at maximum capacity due to ill-health or low motivation – otherwise known as presenteeism. This project aims to explore why this is the case, particularly among women and racially diverse workers, many of whom are overqualified. Utilising high-fidelity experimental and field studies, this project examines why: (a) presenteeism increases ostracism of minority employees, but (b) decreases loneliness - a growing public health concern; and (c) how organisations can minimise costs and maximise benefits of presenteeism. The benefits are actionable steps for organisations to prevent sickness and promote health among all employees, despite overqualification or demographics.","lead-investigator":"A/Prof Aleksandra Luksyte","current-funding-amount":1322733.0,"announced-funding-amount":1322733,"grant-status":"Not yet accepted","primary-field-of-research":"5201 - Applied and Developmental Psychology","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Nearly 60% of Australians engage in presenteeism - they go to work but not working at maximum capacity due to ill-health or low motivation. Presenteeism costs Australian economy $6.1 billion a year due to lost productivity. Yet employees, particularly women and racially diverse workers may have valid reasons for engaging in presenteeism such as job security concerns, reluctance to overburden peers, or avoiding feeling lonely at home. In addition to sickness presenteeism, 1 in 5 Australians engage in hidden presenteeism when they come to work with anxiety and depression, but do not disclose these issues out of stigma fears. This research examines how organisations can minimise presenteeism whilst treating their minority employees equitably. The economic benefits include the increased knowledge about how organisations can prevent sickness and hence minimise costs. The social benefits include (a) knowledge about how to promote health and wellbeing, when employees feel psychologically safe to disclose their sickness and hence avoid presenteeism; and (b) the discovery of unexpected benefits – decreased loneliness among those with mental ill-health. Societal benefits are: (a) considering specific types of sick leave that cover a wider range of impairing conditions; and (b) implementing disclosure and anti-stigma training to increase awareness of presenteeism cost. The outcomes will be disseminated to industry via practitioner-oriented publications, media interactions, and podcasts."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100078"}},{"type":"grants","id":"FT260100079","attributes":{"code":"FT260100079","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"The University of Melbourne","announcement-admin-organisation":"The University of Melbourne","grant-summary":"Understanding young people’s deliberations about what knowledge to trust. This project aims to investigate how secondary school students decide what knowledge to trust and the best policies and practices to support them. It expects to advance new understanding of the role of schooling in young people’s deliberations on trustworthy knowledge amid rising public debate and uncertainty. Expected outcomes include enhanced capacity to develop effective school policies and practices through the application of innovative participatory methods with young people, policy and curricula analysis, and research with stakeholders and teachers. Significant benefits should include improved outcomes, professional development, and better community understanding of the social and cultural factors in deciding what knowledge to trust. ","lead-investigator":"Prof Jessica Gerrard","current-funding-amount":1169636.0,"announced-funding-amount":1169636,"grant-status":"Not yet accepted","primary-field-of-research":"3902 - Education Policy, Sociology and Philosophy","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Young people in Australia face significant challenges in deciding what knowledge to trust, and their schools are struggling to support them. Misinformation, rapid changes in digital information, artificial intelligence, and intensifying social and cultural divisions are all contributing to rising public uncertainty about what knowledge is trustworthy. Yet, we know very little about how young people decide themselves what knowledge is reliable, the social and cultural factors that shape these decisions, or how schools and teachers can best assist them. This project addresses this gap through a multi-pronged research agenda, involving innovative participatory research with secondary school students, policy and curriculum analysis, and research with teachers, policymakers, and community members. This will produce much-needed evidence and guidance for effective schooling policies and practices. Public benefit is also ensured through major public-facing outputs, including a Policy Brief and Policy Paper to inform best policy development. In addition, a Professional Resource Package will enable teacher professional development and publicly available Research Vignettes will provide crucial community insight into young people’s deliberations. Project findings will better equip Australian communities, schools, and families to navigate fast changing knowledge practices and support the next generation grapple with new complexities in determining trustworthy knowledge."},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100079"}},{"type":"grants","id":"FT260100082","attributes":{"code":"FT260100082","scheme-name":"ARC Future Fellowships","funding-commencement-year":2026,"scheme-information":{"schemeCode":"FT  ","program":"Discovery","submissionYear":2025,"roundNumber":1,"schemeRound":"FT26 Round 1"},"current-admin-organisation":"Queensland University of Technology","announcement-admin-organisation":"Queensland University of Technology","grant-summary":" Real-time mass spectrometry for elucidating marine aerosol processes. This project aims to provide fundamental process-level understanding of atmospheric aerosol processes over the Southern Ocean, a region critical to the Australian and global climate and where climate models perform poorly. Comprehensive observations during a Southern Ocean voyage and intense laboratory experiments will enhance our knowledge of aerosols and their  influence on cloud formation in that region and provide much needed data for improving global climate models. Expected outcomes include more accurate seasonal and latitudinal representations of Southern Ocean aerosol populations, properties and sources. The main benefit\nincludes improved weather forecasting and future climate projections for Australia and the Southern Hemisphere.","lead-investigator":"A/Prof Branka Miljevic","current-funding-amount":1329032.0,"announced-funding-amount":1329032,"grant-status":"Not yet accepted","primary-field-of-research":"3701 - Atmospheric Sciences","anticipated-end-date":"","investigators":"","lief-register":[],"national-interest-test-statement":"Atmospheric processes over the Southern Ocean have a profound influence on regional and global climate. This is a part of the world where global climate models perform particularly poorly. This project is addressing the greatest source of uncertainty in climate models – atmospheric aerosols and how they influence cloud formation. Observational data for the Southern Ocean are scarce and this project is a unique opportunity to gather much-needed observations in this region. By using state-of-the-art instrumentation during a 60 days long voyage on the Australian research vessel Investigator and targeted laboratory measurements, the project will enhance our knowledge of the aerosol formation and transformation processes over the Southern Ocean and the role of ocean microorganisms on aerosol properties and populations in the Southern Ocean atmosphere. The new knowledge gained in the project will contribute to improving and strengthening the predictive skill of global climate models. Australia is heavily exposed to weather and climate risk, impacting the safety and well-being of Australians and the productivity of diverse industries. Improved climate projections from models that better represent the Southern Ocean atmospheric processes will inform robust strategies for climate change adaptation, mitigation, and resilience, and better prepare Australia for the challenges of a variable and changing climate.\n"},"links":{"self":"http://dataportal.arc.gov.au/NCGP/API/grants/FT260100082"}}]}