Australia’s economy has long been built around extraction and export. Resources are taken from the ground, processed only lightly, and shipped overseas in large volumes. Coal, gas, iron ore and uranium have shaped not only trade but also regional development and national income.
This structure is still dominant today.
In 2022–23, Australia produced large amounts of energy, measured in petajoules (a unit used to measure total energy production and consumption), but most of it was exported. Around 88 percent of black coal, 79 percent of natural gas and 80 percent of crude oil and condensates left the country, while uranium was fully exported. At the same time, domestic energy use continued to grow, driven by households, transport and industry.
The overall pattern has not changed much. Australia remains highly efficient at extraction, but less developed in domestic transformation and value-added processing.
A renewable transition that is real but uneven?
Alongside this traditional structure, a different system has been growing. Renewable energy now supplies about one third of Australia’s electricity. Solar has expanded rapidly, wind continues to grow, and hydro remains part of the mix. This represents a clear shift in how electricity is produced within the country. But the transition is uneven.
While domestic generation is changing, Australia is not yet exporting large volumes of processed clean energy products. Renewable hydrogen remains a very small share of exports, and critical minerals are still mostly shipped in raw form.
So the system is moving in two different directions at once. Domestic energy production is decarbonising faster than the export and industrial structure is transforming.
Why the transition does not move on its own?
The Future Made in Australia Act is based on the idea that even when technologies exist, markets alone may not scale them quickly enough.
One reason is cost and risk. Clean energy projects require high upfront investment, and returns are uncertain and long term. This naturally limits private investment in early stages.
Another reason is that many benefits of clean energy are not fully captured by firms. Lower emissions, improved public health, energy security and regional development are shared across society, so they are not fully reflected in private returns.
Information also plays a role. Without reliable certification systems, it is difficult to verify whether a product is genuinely low emission. This creates uncertainty for investors and buyers.
Coordination challenges between different levels of government and infrastructure systems can also slow development. On top of that, innovation generates spillover benefits that spread beyond individual firms, reducing private incentives to invest at the socially optimal level.These are structural features of the system, not simple policy failures.
How the Future Made in Australia framework responds
The policy framework does not remove markets, but tries to guide them more directly in areas where these frictions are strongest.
The National Interest Framework is used to identify sectors that contribute to emissions reduction, economic resilience and long term national capability. Public funding is then directed toward these sectors through grants, subsidies and co investment.
A Guarantee of Origin system is being developed to certify low emission products such as renewable electricity and hydrogen. This helps build trust in emerging markets where credibility is still forming.
Community Benefit Principles require projects to demonstrate broader value, including regional employment, infrastructure and local development outcomes.
Funding is also conditional. Support can be adjusted or withdrawn if outcomes are not delivered, which is intended to maintain discipline and avoid long term inefficiencies.
A shift in how the state participates in the economy
What is changing here is not just policy design, but the role of government itself. Rather than standing outside the market and correcting it after the fact, the state becomes more embedded in shaping investment conditions. It helps absorb early risk, coordinate development, and build trust in new industries.
This does not replace private investment. Instead, it tries to make certain types of investment more likely to happen. The tension that sits underneath the policy. This approach carries both opportunity and risk.
Public intervention can help accelerate industries that would otherwise develop too slowly. It can also support regions and sectors that are exposed to structural change.
At the same time, it introduces uncertainty about whether resources are being allocated efficiently, and whether government support will always be targeted in the right places. There is also the broader question of timing. Acting too slowly risks losing competitiveness in global clean energy markets. Acting too aggressively risks locking in inefficient structures. Both risks exist simultaneously.
What is quietly being tested
At a deeper level, what is being tested is whether Australia can expand its economic identity without losing the stability of its existing one.
Whether it can remain a major resource exporter while also becoming a producer of higher value clean energy goods and services.
Whether extraction and transformation can exist together in the same system, rather than replacing one another. And whether policy can support that transition in a way that is gradual, coordinated and durable.
The space where change is actually happening
For now, the transition is not complete. It is not even fully defined.
One system still dominates. Another is still forming. And between them is a space of adjustment where most of the real change is happening.
That space is where Australia’s energy future is currently being negotiated.
References
Australian Bureau of Statistics. (2024). Energy account, Australia, 2022–23. https://www.abs.gov.au/statistics/industry/energy/energy-account-australia/2022-23
Clean Energy Council. (2023). Australia’s renewable energy exports and critical minerals outlook. Clean Energy Council.
Future Made in Australia Act 2024 (No. 119, 2024) (Cth).
Future Made in Australia (Guarantee of Origin) Act 2024 (No. 121, 2024) (Cth).
Future Made in Australia (Guarantee of Origin Charges) Act 2024 (No. 122, 2024) (Cth). https://www.legislation.gov.au
Future Made in Australia (Guarantee of Origin Consequential Amendments and Transitional Provisions) Act 2024 (No. 123, 2024) (Cth). https://www.legislation.gov.au
Future Made in Australia (Omnibus Amendments No. 1) Act 2024 (No. 120, 2024) (Cth).
Future Made in Australia (Production Tax Credits and Other Measures) Act 2025 (No. 9, 2025) (Cth).
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Productivity Commission. (2024). Submission to the Future Made in Australia Bill 2024 (Provisions) and the Future Made in Australia (Omnibus Amendments No. 1) Bill 2024 (Provisions). https://www.pc.gov.au
Zhang, Y., & Wang, Y. (2025). Exploring the role of renewable energy in green job creation and sustainable economic growth: Evidence from BRICS economies. Renewable and Sustainable Energy Reviews, 155, 111847. https://doi.org/10.1016/j.rser.2021.111847