Actions we can take now

The Australian Government has set an ambitious and achievable emissions reduction target for Australia 62–70% below 2005 levels in 2035. A strong foundation of Commonwealth policies and initiatives encouraging decarbonisation across the economy will underpin emissions reduction in the industry and waste sectors. These initiatives provide the direction, funding and market mechanisms that support the transition to low‑emissions technologies and practices. 

Complementing this, state and territory governments play a critical role in reducing emissions through regionally‑tailored regulatory settings, planning systems and infrastructure development. Together, all governments can coordinate to support meaningful progress towards reducing industrial emissions while ensuring the continued growth and resilience of our industrial base.

The industry and waste sector can meaningfully contribute to Australia’s 2035 target and in many instances can act now. For industrial facilities that use low heat processes, immediate decarbonisation opportunities include using commercial technologies such as heat pumps and electric boilers where there is access to electricity, as well as improving energy performance. Others will need to use new technologies or alternative feedstocks and supply chains. 

The Safeguard Mechanism is driving momentum

The Safeguard Mechanism gives industry the clearest and most direct signal to reduce emissions in line with Australia's climate targets. It applies a declining emissions baseline to facilities emitting more than 100,000 tonnes of CO2‑e a year and covers approximately 56% of industrial sector scope 1 emissions. The Safeguard Mechanism supports long‑term investment certainty and operational planning as well as encourages investment in commercially viable abatement technologies and alternative inputs. See the Net Zero Plan for more information on the Safeguard Mechanism.

The Safeguard Mechanism will continue to be the main framework for industry facilities to adopt decarbonisation technologies, particularly for heavy industrial facilities. The 2023–24 Safeguard Data Insights from the Clean Energy Regulator shows that Safeguard facilities are already reducing their emissions, abating 2.7 Mt CO2‑e in the first year of operations of the reformed scheme (CER, 2025a). The Safeguard Mechanism can incentivise the uptake of technologies in the near to medium term. These include electric boilers for alumina refining, alternative fuels for cement production, tertiary abatement catalysts for chemicals and improvements to blast furnaces for ironmaking. 

Capitalising on Australia’s opportunities

The Australian Government is creating a positive investment environment through A Future Made in Australia. This environment lets industry, government and investors share the risks and rewards of investing in clean, low‑emissions industries such as green metals production and battery manufacturing. To support the net zero transformation of existing industries and the growth of new industries, the Australian Government has announced over $22.7 billion to promote industrial development where Australia has comparative advantages. This positions Australian industry to compete in a global net zero economy.

A Future Made in Australia is underpinned by a robust National Interest Framework which will ensure significant public investments incentivise private investment at scale. Government support is in 2 streams: 

  • The Net Zero Transformation Stream for industries that will make a significant contribution to the net zero transition and are expected to have an enduring comparative advantage.
  • The Economic Resilience and Security Stream for industries that are necessary for domestic economic resilience and require the encouragement of public funding. 

To unlock this opportunity, the Australian Government has introduced several funding initiatives:

  • Green Iron Investment Fund: A $1 billion fund to support early movers in establishing commercial‑scale green iron facilities that use lower emissions technologies such as direct reduction using gas or hydrogen. Up to $500 million of this fund will be used the help support the Whyalla transformation.
  • Green Aluminium Production Credit: A $2 billion initiative to support aluminium smelters to transition further to renewable electricity, helping position Australian aluminium as some of the greenest in the world.
  • Future Made in Australia Innovation Fund: A $1.5 billion fund that includes $750 million to support the new technologies needed for green metals through pilot and demonstration projects, and early‑stage development.
  • Battery Breakthrough Initiative: A $500 million fund to strengthen economic resilience and critical battery manufacturing capabilities, particularly those for high‑value battery products in Australia’s areas of competitive advantage.
  • Green Metals Innovation Network: A $10 million network run by the CSIRO in collaboration with the Heavy Industry Low‑carbon Transition Cooperative Research Centre, which brings together research, government and industry to address key technical and economic challenges for green metals.

The Australian Government is also funding co‑contributions to capital investment and providing attractive financing options through initiatives to support decarbonisation and low‑emissions technologies. The $15 billion National Reconstruction Fund (NRF) finances investments in priority areas like renewables and low emissions technologies to support early‑stage startups, growth‑stage companies and mature businesses. The Net Zero Fund will be a new $5 billion sub-fund of the NRF to support major investments by large industrial facilities in decarbonisation and energy efficiency, and scale up manufacturing low emissions technologies. The Net Zero Fund will buttress and modernise domestic industrial capability. The funds will be drawn from existing NRF capital and will be a refocusing of the NRF’s priorities. The Powering the Regions Fund will continue to support a range of decarbonisation investments in Australian industry through:

  • the $600 million Safeguard Transformation Stream (STS)
  • the $400 million Industrial Transformation Stream (ITS)
  • the $400 million Critical Inputs to Clean Energy Industries (CICEI) programs. 

The STS and ITS will open new rounds soon. The Australian Government will continue to consider the needs, resourcing and priorities of the fund over time in light of program priorities, the Net Zero Plan and this sector plan.

The Clean Energy Finance Corporation’s Rewiring the Nation program further supports industrial decarbonisation through electrification and renewables. Rewiring the Nation provides low‑cost finance to expand, modernise and connect renewables to Australia’s electricity grid – particularly transmission lines and renewable energy zones. This enhanced grid infrastructure allows large‑scale renewable energy generation to reach industrial centres, supporting the shift towards renewable electricity. The Capacity Investment Scheme provides a long‑term revenue‑underwriting framework that lowers investor risk for new renewable generation and firming resources (like battery storage). The National Electricity Market wholesale market settings review will further help to deliver reliable, competitively priced and secure electricity services. Together, these initiatives allow industries to electrify processes, reduce exposure to volatile fuel markets and adopt renewables at scale – making meaningful, practical industrial decarbonisation achievable. Some important technologies that these measures can enable include deployment of heat pumps and electric boilers.

The Future Gas Strategy and National Hydrogen Strategy are vital pillars to Australia’s industrial decarbonisation by supporting the scale up and adoption of alternative fuels and inputs. The Future Gas Strategy outlines how gas can support the transition towards renewable energy, especially where electrification is not yet viable. Consistent with Future Gas Strategy, the Gas Market Review will examine existing government policies and ensure sufficient gas supply in the longer term. Switching from coal to gas is also an important transition step for industries to reduce their emissions before alternative lower emission inputs and technologies become available.

Renewable hydrogen is critical to industrial decarbonisation for key subsectors. The National Hydrogen Strategy will guide Australia’s production, use and export of hydrogen. The Australian Government’s Hydrogen Headstart program and Hydrogen Production Tax Incentive helps catalyse renewable hydrogen and clean energy industries. These strategies and supporting measures are particularly important for industries that require renewable hydrogen such as green iron and green ammonia production.

Green industries that are supported by the Future Made in Australia investments help deliver a stronger Australian economy. As the global economy decarbonises, existing Australian fossil fuel exports will decline. Clean industries could offset the loss of fossil fuel export revenue. In Treasury’s Renewable Exports Upside Scenario, export revenue from green commodity sectors is projected to reach $178 billion in 2050, provided there is effective coordination, strong ambition and steady technological progress. 

States and territories 

Australian governments are increasingly aligning their efforts to coordinate industrial decarbonisation, recognising the need to reduce emissions from hard to abate sectors while maintaining economic competitiveness. All governments are working together to develop and deploy low‑emissions technologies, including renewable hydrogen, carbon capture and storage, and electrification of industrial processes. This coordination is critical to ensuring regulatory consistency, supporting shared infrastructure investments and planning the industry transition across jurisdictions.

Australian states and territories are actively developing and implementing strategies, legislation and roadmaps to reduce emissions and support the industrial transition. The state and territory governments are working in close alignment with Australia’s ambitious and achievable target of net zero by 2050. All governments are collaboratively advancing Australia’s industrial decarbonisation through the National Transformation Principles. These underscore a shared commitment to a fair and inclusive transition, emphasising place‑based approaches, First Nations partnerships and regional economic diversification. This collaboration is exemplified through the National Energy Transformation Partnership, the Capacity Investment Scheme and Renewable Energy Transformation Agreements. 

Pathways to decarbonisation

Immediate decarbonisation opportunities are available for industrial facilities that use low heat processes. These facilities can use commercially available technologies such as heat pumps and electric boilers and optimise their energy efficiency. Industrial sub‑sectors that use high heat will be on a slower decarbonisation trajectory. They will need new technologies or alternative feedstocks and supply chains to support their transition (Climate Change Authority, 2024). The 4 key areas of decarbonisation focus are:

1. Optimise energy use now to reduce costs

Energy performance upgrades to optimise energy use across the economy could achieve more than 13% of the emissions reductions needed to achieve net zero by 2050 (ANZ; EEC, 2024). It is particularly important for the industrial sectors (DCCEEW, 2024a) and is the first logical step in the decarbonisation pathway for all business in the 9 sub‑sectors. Energy performance upgrades will deliver immediate benefits, are deployable now, and will help reduce the cost of future upgrades (IEA, 2025a).

Energy performance is also a pathway to modernise Australian businesses, improving competitiveness and productivity while reducing emissions (even in hard‑to‑abate sectors). Energy efficiency upgrades that use less energy to do the same job, is an ideal first step in the decarbonisation of industrial processes and can achieve immediate reductions in emissions and energy costs. For example:

  • The use of heat recovery or thermal energy storage to reduce the amount of gas needed for process heat and to reduce emissions. Thermal energy storage systems can also help businesses better harness renewables and solar to further reduce operational costs (CSIRO, 2023).
  • Upgrading old equipment such as pumps, refrigeration and hot water systems to improve efficiency. In addition to being more efficient, upgraded equipment typically operates more quickly, with more capacity for optimisation through the incorporation of digitisation and AI technologies. For example, a new air compressor helped a paint maker reduce electricity use by 23% (ANZ; EEC, 2024).
  • Deploying smart technologies to help monitor and optimise manufacturing processes and energy use. 

Many of these energy efficiency measures can be deployed now using commercial technologies that do not require costly whole of plant upgrades. Studies have shown that energy efficiency can deliver an average 11% per annum in energy savings, with some having a payback period of under one year (IEA, 2025b). The $56.7 million Energy Efficiency Grants for Small and Medium Sized Enterprises program supports businesses to upgrade or replace inefficient equipment and implement other energy efficiency activities. The program assists businesses lower their energy use and improve their energy efficiency.

Industries can also optimise energy through demand flexibility to better harness times of peak renewable generation where cost of electricity is low. Demand flexibility is discussed in further detail in the ‘Enabling the Transition’ section below as well as in the Electricity and Energy Sector Plan, but in summary, demand flexibility for industry includes:

  • Adjusting processes to take advantage of time of use tariffs e.g. minimise production when renewable generation is low and maximise production when renewable generation is high.
  • Use of energy storage such as batteries or electric thermal energy storage to load shift and reduce industrial demand on the grid in times of low renewable generation.

Box 1: Orora Glass – World leading efficiency for its glass furnace

Orora is a provider of packaging solutions for the beverage industry, including glass bottles and aluminium cans. As part of its sustainability actions, Orora has recently commenced operation of its upgraded oxyfuel furnace for its wine glass furnace at its site in Gawler, South Australia. This upgrade was supported by federal grant funding under the Modern Manufacturing Initiative and moves the Orora glass furnace into the 10% most energy efficient furnaces worldwide (Orora, 2025). By removing nitrogen and heating a mix of oxygen and natural gas, the new oxyfuel furnace is reducing emissions from CO2 by 25% and nitrogen oxides by up to 80%, all while enabling a furnace energy reduction of up to 30%.

Enabling upgrades to optimise energy use 

Many industry sector businesses do not understand where, when, and how they use energy. Improving business awareness of their energy use is therefore a crucial first step to help them to identify where they need to focus investment to optimise energy use. Business can gain insights about their energy use through monitoring or metering systems or by engaging an energy auditor to help inform their upgrade opportunities. The Australian Government is investing in the development of the National Energy Performance Strategy, which will provide a long‑term framework to coordinate and accelerate actions to improve energy performance. This includes assisting businesses and industry overcome barriers to energy performance, including a lack of awareness of benefits and lack of in‑house skills. 

For demand flexibility, some industries are already actively participating, often through agreements with retailers. However, widespread demand flexibility from industry is currently limited by financial risk, high set‑up and operational costs, and lack of revenue certainty (Nelson, Conboy, Hancock, & Hirschhorn, 2025). These issues make it difficult for businesses to assess their opportunities to engage and invest accordingly. The National Electricity Market Wholesale Market Settings Review panel is looking to investigate solutions to address these barriers and encourage more demand flexibility participation. 

2. Electrify processes where possible

Electrification, which replaces processes that use fossil fuels with electric equivalents that can be powered by renewable energy, is a primary pathway for decarbonisation for industries. There are electrification opportunities across a range of subsectors, including in food and beverage manufacturing, green alumina and green steel production. Electrification of industrial processes also helps reduce gas use in the electrified industry sectors, freeing up gas supplies for industries that do not yet have viable alternatives. Promising electrification technologies include:

  • Heat pumps to replace gas heating for low temperature processes in food & beverages. Heat pumps use electricity and refrigerants to more efficiently deliver heat and can be over 4 times more efficient than traditional gas boilers (DCCEEW, 2023).
  • Electric boilers to replace coal and gas boilers, particularly for alumina digestion which is a significant source of industrial emissions. Electric boilers likely need to be coupled with low‑cost renewable energy to be economically viable (Deloitte; ARENA, 2022).
  • Electric Smelting Furnace (ESF) for example in Pilbara ironmaking. This electrification technology helps remove impurities and will enable green steelmaking using Australian Pilbara ore. It is currently in pilot phase (BlueScope, 2024) (Fortescue Metals, 2025).

While electrification may require higher up‑front capital costs, they can provide operational benefits including improved energy efficiency, better ability to integrate digital technologies, and productivity improvements. Electrification technologies can also take advantage of on‑site solar or battery assets to reduce the need to purchase electricity from the grid, helping to reduce energy costs and mitigate potential grid capacity limitations or other constraints. For example, heat pumps typically have higher capital costs than the gas‑fired boilers they replace, but they are highly efficient and can deliver operational cost savings for a potential payback period of under 3 years if implemented appropriately (A2EP, 2022). See Box 2 below. 

Box 2: 3 Ravens Brewery – Benefits from electrification

3 Ravens is a craft Brewery located in the northern suburbs of Melbourne that has moved to 100% electric operations. In 2020, they installed a cool roof and 74 kW of solar PV, this saved energy and improved temperature management. In 2023, they partnered with Regenerate Engineering and A2EP to improve efficiency and minimise waste (3 Ravens, 2025). A CO2 chiller heat pump was also installed, supported by funding from the Australian Renewable Energy Agency (ARENA) and can operate in different modes depending on the heating or cooling required (Future Heat, 2023). A thermal battery and upgraded distribution systems were also added. Because of these electrification upgrades, 3 Ravens now produce 84.78% of their own electricity, and can brew 4 times more beer without increasing energy use (3 Ravens, 2025).

Enabling electrification

Reliable access to appropriately priced, firmed renewable energy is needed to underpin industrial decarbonisation, and electricity supply will need to double or triple from current levels by 2050 to meet demand and enable uptake of electrification technologies (Climate Change Authority, 2024). 

Significant private investment from networks and renewable developers will also be crucial as governments will not be able to deliver the grid transformation alone. The Electricity and Energy Sector Plan outlines a framework to deliver sufficient renewables to support industrial decarbonisation (further detail in the ‘Enabling the Transition’ section). The Powering the Regions Industrial Transformation Stream supports a range of industrial decarbonisation solutions relating to electrification, energy efficiency, low emissions processing and fuel switching. 

3. Switch to alternative fuels and inputs 

Industrial facilities can also consider adopting alternative fuels and inputs such as low carbon fuels, renewable gases, and other alternative inputs which can reduce emissions when other electrification options are not viable, such as in chemical production, ironmaking, and cement production. Many alternative fuels and inputs are key drivers for new economic opportunities. For example, the production of renewable hydrogen, supported by the Future Made in Australia agenda, is a key input to produce green iron and green ammonia, both of which are significant future clean export opportunities. Increased adoption of circular economy practices and the sustainable use of bioresources represent other areas of opportunity and innovation. A selection of alternative fuels and inputs are highlighted in Table 1 below.

The use of alternative inputs such as the adoption of inert anodes in aluminium smelting or a switch to lower global warming potential refrigerants, will also be needed to reduce emissions from synthetic greenhouse gases. Abatement options for synthetic greenhouse gases are examined in further detail under the Net Zero Plan and the Built Environment Sector Plan. 

Alternative fuels and inputs, their applications, and actions to support their deployment
Alternative fuel/input Applications Current actions and future steps

Natural gas

Natural gas can replace coal as a transition fuel in some applications to reduce emissions intensity, though it will not be able to eliminate emissions. 

Substitute for coal to deliver process heat (alumina, cement, etc.), replace coal as a reducing agent for ironmaking (gas‑based DRI) Gas market tightness is likely to impact gas supply and prices. The Future Gas Strategy outlines the Australian Government’s plan for managing these challenges and the current Gas Market Review will identify improvements to ensure sufficient gas supply in the longer term.

Hydrogen

Hydrogen can be produced using renewable electricity and can be a clean alternative to gas and coal

Feedstock (ammonia), chemical reactant (direct reduced iron), fuel source for high temperature applications (alumina calcination)

The National Hydrogen Strategy 2024 provides the framework to position Australia as a global hydrogen leader. The Hydrogen Production Tax Incentive and the Hydrogen Headstart program are helping to increase availability and affordability of hydrogen as the industry scales. 

The Australian Government has also invested more than $500 million to support and co‑fund common infrastructure investments and the formation of hydrogen hubs in regional Australia. Hydrogen is a key priority of the Future Made in Australia agenda, and in decarbonising many industries.

Bioresources

Bio‑derived fuels and inputs from agricultural waste, forestry residue, and waste‑water treatment that can substitute fossil fuels

Process heat (biogas, biomass, biomethane), electricity generation (bagasse), feedstocks (biomethane for chemicals) The cost and sustainability of bioresources can vary. Access and distance to bioresources are key factors. Bioresources are enablers for the sector plans. ARENA released Australia’s Bioenergy Roadmap in 2021, which highlights the potential for Bioenergy in Australia. Modelling shows that bioenergy has the potential to provide up to 20% of Australia’s total energy consumption by the 2050s. (Enea, Deloitte, ARENA, 2021)

Bioresources

Bio‑derived fuels and inputs from agricultural waste, forestry residue, and waste‑water treatment that can substitute fossil fuels

Process heat (biogas, biomass, biomethane), electricity generation (bagasse), feedstocks (biomethane for chemicals) The cost and sustainability of bioresources can vary. Access and distance to bioresources are key factors. Bioresources are enablers for the sector plans. ARENA released Australia’s Bioenergy Roadmap in 2021, which highlights the potential for Bioenergy in Australia. Modelling shows that bioenergy has the potential to provide up to 20% of Australia’s total energy consumption by the 2050s. (Enea, Deloitte, ARENA, 2021)

Low carbon building materials

Additives and alternatives to building materials that traditionally have high emissions 

Supplementary cementitious materials (blast furnace slag to substitute clinker), new materials (geopolymers) Only certain cement types can be used in concrete under the relevant Australian standard for concrete. This inhibits the uptake of lower emission technologies in Australian cement production and use. Updates in Australian Standards and regulations and promoting market adoption will help increase the use of low carbon building materials.

Box 3. Alternative industrial process heat option through concentrated solar thermal

Mars Petcare in Wodonga, Victoria, has installed a $39.3 million solar thermal plant with the aid of a $17.2 million grant from ARENA. The 18‑megawatt Parabolic Trough Concentrated Solar Thermal (CST) plant will provide up to 10 hours of thermal energy storage for cooking pet food (Mars, 2024). The project is expected to reduce their total natural gas consumption by over 50%, leading to an annual carbon reduction of up to 4,000 tons (ARENA, 2025). The CST plant uses mirrors to concentrate sunlight to produce thermal energy, the heat is then captured and stored and can be dispatched on demand for a wide range of industrial process heat applications. CST combines with electrical thermal energy storage (eTES) systems to displace gas for steam‑based manufacturing processes.

4. Invest in technology opportunities to support the transition

All subsectors have technology opportunities that are deployable now, though additional technologies are required for most subsectors to reach net zero. This is especially the case for hard to abate industrial processes due to high process temperature requirements and complex production processes. New technologies and innovations will be important for subsectors such as iron and steel, aluminium and alumina, cement and chemicals. Some potential decarbonisation technologies by subsector are listed in below.

Subsector Near term (by 2030) Medium term (by 2035) Longer term (by 2050)

Alumina and aluminium

Icon representing alumina and aluminium manufacturing
  • Double digestion
  • Thermal energy storage
  • High temperature heat pumps
  • Electric boilers
  • Mechanical vapour recompression
  • Electric/Hydrogen calcination
  • Inert anodes

Cement and concrete production

Icon representing cement and concrete production
  • Alternative fuels
  • Supplementary cementitious materials
  • Design and concrete innovation
  • Geopolymers
  • Electrification of high temperature thermal processes*
  • Carbon management tech

Chemicals and plastics

Icon representing chemicals and plastics manufacturing
  • Tertiary abatement catalysts
  • Waste heat recovery
  • Introduce renewable hydrogen for ammonia 
  • Biotechnology*
  • Zero emissions renewable hydrogen feedstocks

Food and beverages

Icon representing food and beverages manufacturing
  • Food waste avoidance
  • Electric/biomass/biogas boilers
  • Heat pumps
  • High temperature heat pumps
  • Further electrification
  • Continued adoption

Iron and steel

Icon representing iron and steel manufacturing
  • Electric Arc Furnace
  • Gas‑based DRI
  • Blast‑furnace partial mitigation
  • Increase scrap steel use
  • Alternate feedstocks (biochar)
  • Beneficiation and pelletisation
  • Electric Smelting Furnace
  • Hydrogen/gas mix DRI
  • Hydrogen‑based DRI
  • Hydrogen plasma smelting*
  • Molten oxide electrolysis*
  • Flash ironmaking*

Manufacturing

Icon representing manufacturing and additional industries
  • Process optimisation
  • Alternative fuels
  • Continued adoption of process optimisation and alternative fuels
  • Technologies currently in early stages of development 

Metals refining and smelting

Icon representing other metals refining and smelting
  • Energy and materials efficiency
  • Electric smelters
  • Technologies currently in early stages of development 

Pulp, paper and paperboard

Icon representing pulp paper and paperboard manufacturing
  • Bioresources
  • Electric boilers
  • See common opportunities
  • Continued adoption

Waste and resource recovery

Icon representing waste and resource recovery
  • Gas capture and use
  • Diversion of organic waste
  • Biogas and biomethane production
  • Biotechnology
  • Continued adoption

Common opportunities

Icon representing  collaboration
  • Circular economy
  • Energy performance
  • Onsite renewables
  • Use of lower GWP refrigerants
  • Process optimisation
  • Material substitution
  • Further electrification
  • Electric thermal energy storage (e‑TES)
  • Further development of new low GWP alternatives
  • Optimisation via AI
  • Alternative fuels, including hydrogen
  • Carbon management tech
  • Technologies currently in early stages of development

* Potential breakthrough technologies that are in earlier stages of development

Research and development and technology innovation

Australia is an established global leader in world‑class research and science excellence. There are a range of measures to support the development of technologies and innovations required to help industries reach net zero.

Commonwealth agencies such as the Commonwealth Scientific and Industrial Research Organisation (CSIRO) play a vital role in accelerating the development of technologies and innovation. This includes work from the CSIRO energy mission to lead the development of technologies and knowledge creation that drive low‑cost electrification and decarbonisation of our major industries and exports. CSIRO’s research infrastructure is critical in this role, providing world class facilities to deliver on Australia’s science ambitions and support collaboration across research, industry and community sectors.

Australian Government programs funded through ARENA offer critical support towards industrial decarbonisation research, development, commercialisation and uptake. To support the net zero transition, the $1.5 billion Future Made in Australia Innovation Fund provides grant funding to support pre‑commercial innovation, demonstration and deployment of renewable energy and low emission technologies across green metals, clean energy technology manufacturing and low carbon liquid fuels. The $40 million National Industrial Transformation Program supports industrial decarbonisation projects targeting investment in electrification, fuel switching or energy efficiency, or critical enabling infrastructure. Support ranges from feasibility stage projects through to demonstration and deployment stage projects. 

Innovation and commercialisation are major levers to increase the commercial success of SMEs through differentiation and competitiveness. Research from the Industry Innovation and Science Australia showed medium‑sized businesses have the highest rate of innovation‑active businesses (at 71%) among Australian businesses, higher than large businesses (IISA, 2023). The Research and Development Tax Incentive encourages companies to innovate by offsetting some of the costs of eligible R&D activities, which could include research and development focussed on decarbonisation of industrial processes. Up until 2023–24, over $7.5 billion of R&D expenditure was claimed under the Research and Development Tax Incentive by green metals related projects. The Australian Government’s cooperative research centres (CRCs) foster high quality research partnerships between industry and research organisations to support the competitiveness, productivity, and sustainability of Australian industries. The Heavy Industry Low‑carbon Transition (HILT) CRC is focussed on de‑risking and accelerating the technology pathways to transition steel, iron, alumina and cement industries.

The Australian Government is also supporting the growth of enabling capabilities such as artificial intelligence (AI) and quantum technologies to enhance our ability to collect, collate, and analyse vast amounts of data. These digital insights can support the transition to green practices through improved energy utilisation, process optimisation and smart decision‑making to boost productivity. Biotechnologies can also play a role, providing biobased substitute feedstocks for fossil fuels, see Box 4. These enabling capabilities have been identified as a priority area under the National Reconstruction Fund and is further supported through the National AI Capability Plan and the National Quantum Strategy. 

The Strategic Examination of Research and Development builds on this to deliver an effective R&D system and increase the benefits of science, research and innovation for Australia. This includes getting more value from research investments, growing business investments in R&D, and leveraging our scientific strengths to address national priorities. 

Box 4. Innovative biotechnology solutions to reduce emissions and plastics waste 

Samsara Eco and Uluu are 2 Australian companies offering innovative biotechnology solutions to reduce the carbon intensity of plastic production by keeping materials in use for as long as possible (Samsara Eco, 2025; Uluu, 2024). Uluu produces biodegradable plastics derived from seaweed. Samsara Eco has developed novel enzymes to infinitely recycle plastics at scale. Both manufacturing processes have a low carbon footprint as they rely on renewable resources and use lower temperatures compared to traditional methods. This results in reduced emissions through circular processes.