APN Research: From Quarry to Quantum: Architecting Australia's Economic Complexity Through the Net-Zero Transition

Executive Summary

Australia stands at a critical juncture, defined by a paradox of immense natural wealth and declining economic sophistication. For decades, the nation has sustained a high standard of living through the large-scale export of unprocessed raw materials, a model that has masked a progressive hollowing out of its industrial base and a precipitous decline in its economic complexity. This report presents a comprehensive analysis of this structural crisis and posits a clear, evidence-based thesis: the global transition to a net-zero economy is not an environmental cost to be borne, but the singular, generational opportunity to reverse this decline. It is the forcing function that can catalyse the development of new, high-value, and technologically advanced export industries, fundamentally re-architecting the Australian economy for the 21st century.

The analysis first establishes the nature of Australia’s economic malaise, drawing on expert diagnosis and quantitative data. The nation’s ranking on the Harvard Economic Complexity Index (ECI) has plummeted from 64th in 2003 to 105th in 2023, placing it last among all OECD countries. This is a direct consequence of an export basket overwhelmingly dominated by low-complexity resources such as iron ore, coal, and natural gas, which together constitute nearly half of all exports. This “quarry economy” model has left Australia vulnerable to global commodity cycles and has failed to capture the immense value that is created downstream from its own natural endowments.

The report then deconstructs the net-zero transition as the primary catalyst for resolving this crisis. It moves beyond a defensive framing of climate action to an offensive strategy for economic reconstruction, focusing on three transformative, high-complexity value chains:

1. From Lithium to Batteries: A detailed examination of the multi-billion-dollar opportunity to move beyond exporting raw lithium concentrate, of which Australia is the world’s largest producer, to establish onshore refining of battery-grade chemicals and manufacturing of high-value battery components.
2. From Iron Ore to Green Steel: An investigation into the industrial and export potential of leveraging Australia’s unparalleled iron ore reserves and abundant renewable energy to produce and export “green steel” and its precursor, green direct reduced iron (DRI), using renewable hydrogen.
3. From Sunshine to ‘Sun-Exports’: An analysis of the strategy to export Australia’s embodied solar and wind potential, not as raw electricity, but through energy-intensive, high-value products such as green hydrogen and ammonia, and by powering a regional data processing industry that exports data services to Asia via subsea cables.

Finally, the report synthesises these findings through a “Property. People. Possibilities.” framework. It quantifies the required physical footprint of this new industrial base, including the demand for new manufacturing land, large-scale renewable energy generation sites, and critical infrastructure like hydrogen hubs and data centres. It profiles the high-skill, high-wage workforce, from chemical engineers and materials scientists to data scientists and advanced manufacturing specialists, that will be essential to power these industries, highlighting the significant skills and training challenge ahead.

The conclusion is unequivocal. A strategically managed and ambitious net-zero transition offers the most viable pathway for Australia to build sovereign capability, diversify its export base, and architect a resilient, “smart,” and complex economy. It is the opportunity to move from being the world’s quarry to a global provider of the foundational technologies and processed materials of the zero-carbon future.

Section 1: The Complexity Crisis: A Nation at a Structural Crossroads

1.1 The Expert Diagnosis: A “Third-World Industrial Structure”

The foundational premise for understanding Australia’s economic predicament is articulated with stark clarity by Emeritus Professor Roy Green. His analysis provides the critical signal that frames the nation’s challenge not as a cyclical downturn, but as a deep-seated structural failure. Professor Green diagnoses Australia as a nation sustaining a “first-world lifestyle with a third-world industrial structure”.¹ This condition is the direct result of a “narrow trade and industrial structure, overly reliant on the export of unprocessed raw materials”.²

For decades, this underlying vulnerability was masked by the immense wealth generated by successive commodity booms. These periods of high national income, however, induced a sense of “complacency over many years in business and government”.² The consequence of this complacency has been a steady erosion of the economy’s productive base, manifesting in a long-term productivity slowdown, persistent wage stagnation, and a dangerous hollowing out of sovereign manufacturing capability. The manufacturing sector, which accounted for a robust 30% of Australia’s GDP in the 1970s, has atrophied to a mere 5% today, the lowest in the OECD.¹

This decline exposes the limitations of a national economic strategy built on the classical theory of “comparative advantage”, the idea that a nation should specialise in what it is naturally endowed with. Professor Green argues this theory is an anachronism in a 21st-century global economy where competitive advantage is no longer simply found, but actively built through “smart specialisation” in global markets and value chains.¹ Advanced economies like Germany, Switzerland, and Japan do not rely on low-cost mass production; they underpin their high-skill, high-wage economies with sophisticated manufacturing and related services that are deeply integrated into a “fourth industrial revolution” encompassing robotics, artificial intelligence, and data analytics.¹

The imperative, therefore, is for “structural change and transformation”.² While Professor Green’s focus is broadly on fostering an innovation-led, advanced manufacturing ecosystem, his commentary on the need to address existential challenges like “climate change” ² and embrace industrial transformation through automation and digital technologies provides the crucial bridge to the net-zero transition. The global decarbonization imperative is not merely another challenge to be managed; it is the most powerful forcing function available to drive the very industrial reinvention that his diagnosis demands.

1.2 The Quantitative Reality: A Precipitous Decline in Economic Complexity

Professor Green’s qualitative diagnosis is unequivocally substantiated by quantitative measures of economic sophistication. The most comprehensive of these is the Harvard Growth Lab’s Economic Complexity Index (ECI), which measures the diversity and research intensity of a country’s exports. On this index, Australia’s performance has been catastrophic.

The data reveal a consistent and precipitous decline over two decades. In 2003, Australia was ranked a respectable 64th in the world. By 2023, it had collapsed to 105th out of 145 countries.⁴ This places Australia not just at the bottom of the OECD league table but behind developing nations such as Botswana and only marginally ahead of Côte d’Ivoire.³ This is not a statistical anomaly but a clear trend reflecting a deep-seated structural malaise.

This low level of economic complexity has direct implications for future prosperity. The Harvard Growth Lab’s models, which find that countries with more complex export baskets grow faster, project a slow annual growth rate of just 2.0% for Australia over the coming decade. This places the nation’s growth prospects in the bottom half of all countries globally, a sobering forecast for a developed economy.⁶

However, a more nuanced look at the data reveals a critical national pathology. While Australia’s export-based ECI is dismal, its rankings for the inputs to innovation are world-class. In 2021, the Observatory of Economic Complexity ranked Australia 13th for Technology ECI and an elite 4th for Research ECI.⁷ This stark divergence between a high capacity for knowledge creation and a low capacity for producing complex goods reveals a fundamental breakdown in the national innovation system. Australia excels at generating world-class research and know-how, but it consistently fails to translate this intellectual capital into high-value, tangible products manufactured on its own shores. The economic benefits of its research are either left uncommercialized or are effectively exported in their most basic form, as raw materials that are then processed using advanced techniques in other countries. This “commercialisation chasm” is the central weakness of the Australian economy. The net-zero transition, by demanding the creation of entirely new domestic industries such as battery precursor manufacturing and green steel production, offers a direct and powerful mechanism to bridge this gap, forcing the application of domestic R&D to domestic resources to create complex exports.

1.3 Deconstructing the Export Basket: The Quarry Economy

The direct cause of Australia’s low ECI ranking is the composition of its export basket. The nation’s trade profile is overwhelmingly dominated by the extraction and sale of unprocessed natural resources, a model often described as a “quarry economy.” Data from the Reserve Bank of Australia for 2023-24 shows that “Resources” constitute a massive 57.5% of the nation’s total export share. In stark contrast, sophisticated “Manufactured” goods account for a mere 8.1%.⁸

A granular analysis of the top export categories for the 2023-24 financial year confirms this imbalance. The top three exports by a significant margin were Iron ore & concentrates ($137.9 billion), Coal ($91.4 billion), and Natural gas ($68.7 billion).⁹ These three low-complexity commodity groups alone accounted for $298 billion, or over 45% of Australia’s total goods and services exports. The Harvard Growth Lab’s analysis identifies this as a “troubling pattern of export growth,” where expansion has been driven almost entirely by low and moderate-complexity products, particularly “Ores, slag and ash” and “Mineral fuels, oils and waxes”.¹¹ The Lab concludes that Australia has failed to diversify into a sufficient number of new, more complex products to drive sustainable, long-term income growth.¹¹

This economic structure is not a recent development but the result of a long historical trajectory. While agricultural products like wool dominated in the mid-20th century, the post-1960s minerals boom cemented the nation’s reliance on resource extraction, with iron ore becoming the single most valuable export by 2010.¹²

This history reveals a profound paradox. The period of Australia’s most significant decline in economic complexity directly coincides with its greatest-ever resources boom, which began in the mid-2000s. This boom, driven by industrialisation in China, delivered an unprecedented surge in Australia’s terms of trade and national income.¹³ However, this very success had a corrosive long-term effect on the economy’s structure. It channelled vast amounts of capital, labour, and policy focus into the low-complexity resources sector, reinforcing the “dig and ship” model. Simultaneously, the resulting high value of the Australian dollar rendered other, more complex export sectors, particularly manufacturing, less competitive on the global stage, accelerating their decline.¹ The very economic event that created immense short-term wealth simultaneously deepened the economy’s structural lack of complexity and increased its long-term vulnerability. This paradox is central to understanding why a fundamental strategic shift is now an economic imperative.

Section 2: The Net-Zero Imperative as an Economic Catalyst

2.1 Reframing the Transition: From Environmental Cost to Economic Architecture

The global transition to a net-zero emissions economy by 2050 represents the most significant restructuring of the world’s industrial and energy systems in over a century. For Australia, this transition is often framed as an environmental obligation or a costly burden on its carbon-intensive economy. This report posits a fundamentally different perspective: the net-zero transition is not a threat to be managed, but a “forcing function” that creates an unparalleled opportunity for national economic reconstruction.¹⁴

This is not a matter of choice, but of economic reality. Countries representing more than 70% of Australia’s two-way trade have made binding net-zero commitments.¹⁴ This collective action creates a powerful and irreversible demand signal for the low-carbon products, processed materials, and technologies that will form the foundation of the 21st-century global economy. To ignore this signal is to risk being left behind, holding stranded assets in a world that has moved on.

This perspective aligns directly with emerging national policy frameworks, most notably the “Future Made in Australia” agenda. This policy explicitly seeks to leverage the net-zero economy as a vehicle to build sovereign capability, enhance economic resilience, and capitalise on Australia’s unique natural advantages.¹⁵ The agenda’s core logic is to use the nation’s abundant renewable energy and critical mineral resources not just for export in their raw form, but as the inputs for a new generation of value-added, high-complexity manufacturing industries.¹⁶

This strategic reframing is echoed by leading independent analysis. The Grattan Institute, for example, argues that a proactive approach to transforming heavy industry for a low-emissions future constitutes a “21st Century industry policy” that can underpin Australia’s successful transformation into a world-leading “energy superpower”.¹⁸ The transition, therefore, ceases to be a narrow environmental issue and becomes the central pillar of a new national economic architecture, a deliberate strategy to build a more complex, sophisticated, and resilient economy.

2.2 The New Industrial Ecosystem: Leveraging a Unique National Advantage

The foundation of this new economic architecture rests on a unique and powerful national advantage: the co-location of vast, high-quality endowments of the very mineral resources required for the energy transition with some of the world’s best solar and wind resources.¹⁷ This combination of geological and geographical luck is almost unparalleled globally and provides the key to unlocking immense downstream value-adding opportunities that were previously uneconomic.

This report will analyse the potential of a new industrial ecosystem built upon this advantage, focusing on three core pillars of transformation. These pillars represent the most promising, large-scale pathways for Australia to move up the value chain and build the high-complexity export industries of the future.

1. Pillar 1: Electrochemical Value-Adding (Lithium to Batteries): This involves a strategic move up the battery value chain. Instead of merely exporting raw lithium concentrate, Australia can leverage its mineral wealth and renewable energy to produce high-purity lithium hydroxide and carbonate, manufacture advanced battery precursors and active materials, and potentially develop niche capabilities in cell and pack manufacturing for specific applications like grid storage and heavy transport.
2. Pillar 2: Green Metallurgical Processing (Iron Ore to Green Steel): This pillar focuses on decarbonising one of the world’s most carbon-intensive industries. By harnessing its abundant solar and wind power to produce green hydrogen, Australia can transform its iron ore into high-value, low-carbon export products like green direct reduced iron (DRI) and, ultimately, green steel, meeting the surging global demand from decarbonising economies.
3. Pillar 3: Exporting Embodied Renewables (‘Sun-Exports’): This strategy involves monetising Australia’s immense renewable energy potential not by exporting raw electricity, but by embedding that low-cost, zero-carbon energy into other high-value, easily transportable export products. This can be achieved through two primary vectors:

• Exporting Molecules: Producing industrial-scale quantities of green hydrogen and its derivative, green ammonia, for export to energy-importing nations in Asia and Europe.
• Exporting Data: Utilising low-cost, reliable renewable energy to power the immense and growing energy demands of a domestic data centre industry, thereby providing high-value data processing, storage, and AI services to the Asia-Pacific region.

These three pillars are not mutually exclusive; they are deeply interconnected and form a synergistic industrial ecosystem. Green hydrogen from Pillar 3 is the key enabler for green steel in Pillar 2. The advanced materials and batteries from Pillar 1 are essential for building out the renewable energy and storage infrastructure that powers all three. Together, they represent a coherent and comprehensive strategy for national industrial renewal.

Section 3: Forging the Industries of the Future: A Deep-Dive Analysis

3.1 From Lithium to Batteries: Capturing the Full Value Chain

Australia’s position in the global lithium market is a perfect illustration of its wider economic complexity problem. The nation is the world’s largest producer of lithium, providing half of the global supply, yet it captures a minuscule fraction of the immense value created in the battery supply chain.³ Currently, Australia captures only an estimated 0.53% of the final value of the lithium it exports.³ The vast majority of its spodumene concentrate is shipped directly to China for the complex and lucrative downstream processing into battery-grade chemicals and components.²²

The economic prize for moving up this value chain is transformative. The global market for lithium-ion batteries is projected to be worth $242 billion by 2026, and the broader opportunity is estimated at $7.4 trillion through 2050.²³ According to a landmark 2021 report from the Future Battery Industries Cooperative Research Centre (FBICRC), establishing a diversified domestic battery industry could contribute $7.4 billion annually to Australia’s economy and support 34,700 jobs by 2030.²³ A subsequent 2023 report updated these figures, forecasting a potential value-add of $16.9 billion and 61,400 local jobs by the same year, driven by the accelerating adoption of electric vehicles and stationary storage.²⁵

The strategic pathway to capturing this value involves a targeted ascent up the supply chain, which consists of several key stages: mining, refining (producing high-purity lithium hydroxide or carbonate), precursor and cathode active material (CAM) production, cell manufacturing, and finally, battery pack assembly. Analysis from the Grattan Institute and CSIRO indicates that Australia’s most significant competitive advantage lies in the initial downstream stages.²⁶ The nation possesses not only the raw mineral inputs but also world-leading R&D capabilities in spodumene calcination and purification processes.²⁶ Crucially, these refining and chemical processing stages are highly energy-intensive, providing a clear opportunity to leverage low-cost renewable energy as a key competitive differentiator.

The competitive advantage diminishes further up the chain at the cell manufacturing stage. This is primarily because energy becomes a smaller component of the total cost, while the need to import other battery materials (representing up to 20% of input costs) and higher relative labour costs become more significant factors.¹⁷ This suggests that a successful national strategy should not aim to compete with mass-market consumer electronics cell production in Asia, but rather focus on areas of genuine advantage. This includes becoming a global hub for the production of high-value, battery-grade chemicals and precursors, and potentially developing niche cell manufacturing capabilities for applications where Australia has specific needs and advantages, such as heavy-duty batteries for mining vehicles or large-scale stationary storage systems for the grid.²⁸

Realising this vision requires substantial and strategic investment. The FBICRC estimates that a total of $17 billion to $23 billion in capital investment is required by 2030 to build this diversified industry. Of this, the most critical tranches are $4 billion to $6 billion for refining and active materials and $2 billion to $3 billion for cell manufacturing.²⁹ Government initiatives like the National Reconstruction Fund are designed to de-risk and crowd-in this level of private investment.

3.2 From Iron Ore to Green Steel: The Renewable Foundry

The global steel industry, responsible for 7-9% of total anthropogenic greenhouse gas emissions, is on the cusp of a profound technological transformation.³⁰ With major economies and key markets committed to net-zero emissions, the demand for “green steel”, steel produced with near-zero carbon emissions, is set to grow exponentially. For Australia, the world’s largest exporter of iron ore, this shift represents both a significant risk to its largest export commodity and an unprecedented opportunity to create a new, high-value manufacturing industry.

By pairing its immense iron ore resources with its world-class renewable energy potential, Australia is uniquely positioned to become a global leader in the production and export of green steel and its key precursor, green Direct Reduced Iron (DRI).¹⁹ The economic scale of this opportunity is vast. The Grattan Institute estimates that capturing just 6.5% of the global steel market could generate $65 billion in annual export revenue and create 25,000 manufacturing jobs in key industrial regions like Central Queensland and the Hunter Valley in NSW.³² A more ambitious analysis by the Superpower Institute projects that if green iron were to fully replace traditional iron ore exports, it could generate up to $386 billion in annual revenue by 2060, more than triple the current value of iron ore exports.²¹

The primary technological pathway to green steel involves using green hydrogen, produced via electrolysis powered by renewable electricity, as a reducing agent to strip oxygen from iron ore in a Direct Reduced Iron (H2-DRI) process. This DRI is then melted in an Electric Arc Furnace (EAF), also powered by renewables, to produce liquid steel. The main byproduct of this process is water vapour, not carbon dioxide, effectively decarbonising the most emissions-intensive stage of steelmaking.³²

The economic viability of this pathway is rapidly approaching a critical tipping point. Economic modelling demonstrates that, even without a carbon price, green steel produced in Australia becomes cost-competitive with steel from a traditional Blast Furnace-Basic Oxygen Furnace (BF-BOF) route when the price of green hydrogen falls to approximately $1.3/kg.³⁴ The introduction of a carbon price dramatically accelerates this crossover. At a hydrogen price of $2/kg, a modest carbon price of $30 per tonne of CO2 is sufficient to make green steel the more economic option.³⁴ Australian government policies are explicitly designed to bridge this “green premium” and accelerate cost reductions. The $2 billion Hydrogen Headstart program provides revenue support for early large-scale projects, while the new Hydrogen Production Tax Incentive will provide a $2/kg credit, directly targeting the key cost input for green steel production.³⁴

Significant challenges must be acknowledged and addressed. Major industry players like BHP have expressed scepticism about Australia’s ability to be cost-competitive against regions with lower capital and labour costs, such as the Middle East.³⁸ Furthermore, a large portion of Australia’s exported iron ore is hematite, which is of a lower grade than magnetite and less suitable for established DRI technologies. This may necessitate investment in additional processing steps to upgrade the ore or the deployment of next-generation technologies like Electric Smelting Furnaces (ESF) that can handle lower-grade ores.²¹ Despite these hurdles, the strategic direction is clear: leveraging renewable energy to add value to iron ore is a foundational opportunity for Australia’s industrial future.

3.3 From Sunshine to ‘Sun-Exports’: Monetising Renewable Energy at Scale

The ultimate foundation of Australia’s future economic complexity is its unparalleled endowment of renewable energy resources. The strategic challenge is to convert this raw potential into high-value, tradeable exports. This section explores two primary pathways for achieving this: exporting energy embodied in molecules (green hydrogen and ammonia) and exporting energy embodied in processed data (via renewable-powered data centres).

Part A – Exporting Molecules (Green Hydrogen & Ammonia)

The most direct strategy for monetising Australia’s renewable advantage is to use its abundant, low-cost solar and wind power to produce green hydrogen through water electrolysis. As hydrogen is difficult and expensive to transport over long distances, it is often converted into green ammonia ($NH_3$), a more stable and widely traded chemical carrier. This green ammonia can then be shipped to energy-importing but industry-rich nations like Japan, South Korea, and countries in Europe to decarbonise their industrial, transport, and power sectors.⁴⁰

The scale of Australia’s ambition in this sector is globally significant. The national project pipeline is valued at over $225 billion, representing approximately 20% of all announced clean hydrogen projects globally and around half of all projects with a specific export orientation.⁴³ This pipeline is rapidly moving from concept to reality, with several world-scale projects advancing toward final investment decisions.

Two flagship projects illustrate this scale:

• Allied Green Ammonia (Northern Territory): A US$6.8 billion project planned for the Gove Peninsula, designed to be one of the world’s largest green ammonia facilities. It will be powered by a dedicated 4.75 GW solar farm and a 1.6 GWh battery system, driving 3 GW of electrolysers to produce nearly one million tonnes of green ammonia annually for export.⁴⁴
• Murchison Green Hydrogen Project (Western Australia): A 6 GW hybrid wind and solar plant on the coast north of Perth, which will power 3 GW of electrolysers to produce up to 1.9 million tonnes of green ammonia per year, with offtake agreements being negotiated with partners in Japan and Korea.⁴¹

The macroeconomic impact of building this new export industry is substantial. Projections estimate that a domestic clean hydrogen industry could generate an additional $11 billion a year in GDP and create more than 8,000 new, ongoing jobs by 2050, in addition to the thousands of construction roles required to build the infrastructure.⁴⁶

Part B – Exporting Data (Renewable-Powered Data Centres)

A more indirect, yet potentially higher-value, strategy for exporting renewable energy is to use it to power energy-intensive domestic industries that produce digital, rather than physical, exports. The prime candidate for this is the data centre industry. The national strategy is to position Australia as a premier “green data centre hub” for the Asia-Pacific region.⁴⁷

The core value proposition is compelling: leverage Australia’s abundant, reliable, and low-cost renewable energy to power the immense and rapidly growing electricity demands of hyperscale data centres and artificial intelligence (AI) processing. The resulting high-value data services, cloud computing, data storage, and AI model training can then be exported to the booming digital economies of Asia via a growing network of high-capacity subsea fibre optic cables.⁴⁷

Market demand and investment are already surging. Australia’s data centre capacity is projected to more than double by 2030, from 1,350 MW to over 3,100 MW.⁵⁰ This growth is attracting billions of dollars in investment from global technology giants, who are explicitly linking their expansion to the availability of renewable energy. Amazon Web Services is investing A$20 billion in Australian data centre infrastructure between 2025 and 2029 and has signed Power Purchase Agreements (PPAs) for three new large-scale solar farms to power its operations. Similarly, Microsoft has signed a 15-year PPA for a 353 MW solar farm in New South Wales to power its data centres.⁵¹

This entire strategy is underpinned by critical digital infrastructure. Australia is connected to Asia and the rest of the world by 17 major subsea data cables, with more under construction.⁴⁷ These cables are the arteries through which data services are exported. Geographically, Western Australia and the Northern Territory are emerging as prime locations for this industry, given their vast renewable potential, proximity to Asia, and existing subsea cable landing points.⁴⁷

The development of this industry creates a powerful, virtuous cycle for regional development and grid stability. Data centres, as large and constant consumers of electricity, act as ideal “anchor tenants” for new, large-scale renewable energy projects.⁵¹ By strategically locating new data centres within designated Renewable Energy Zones (REZs), their demand provides the revenue certainty needed to de-risk and finance the construction of the solar farms, wind farms, and transmission lines that define those zones.⁵⁴ This co-location not only alleviates pressure on congested urban grids and reduces energy transmission losses but also transforms data centres from passive energy consumers into active enablers of the energy transition, underwriting the development of regional renewable infrastructure and creating a more resilient, geographically diverse national electricity market.⁵⁰

Section 4: Strategic Synthesis: Property, People, and Possibilities

4.1 Property: The Physical Footprint of a New Economy

The industrial transformation driven by the net-zero transition will have a profound and tangible impact on Australia’s physical landscape, demanding a significant expansion of real assets, from energy generation sites to advanced manufacturing facilities. Understanding this physical footprint is critical for strategic planning in infrastructure, land use, and investment.

Renewable Generation Sites: The scale of new energy infrastructure required is immense. To decarbonise the existing grid and power the new industries of electrification and green hydrogen, Australia’s electricity generation will need to roughly triple. Analysis from the Australian National University suggests that achieving this would require approximately 1,200 square kilometres of land dedicated to solar and wind farms.⁵⁵ This figure is based on conservative land-use estimates of 3-4 hectares per megawatt (MW) for large-scale solar and 110-200 hectares per turbine for onshore wind.⁵⁶ While this represents a vast area, it is crucial to place it in context: it is less than 0.05% of the 4.2 million square kilometres of land currently devoted to agriculture in Australia.⁵⁵ Furthermore, much of this land is not lost to production; wind farms have a very small direct footprint, and solar farms are increasingly being co-located with agricultural activities like sheep grazing (“agrisolar”), creating dual revenue streams for landholders.⁵⁷

Hydrogen Hubs & Industrial Land: The National Hydrogen Strategy is predicated on the development of large, integrated regional hydrogen hubs. The government has already committed over $500 million to support the development of these hubs in key strategic locations, including the Pilbara and Kwinana in Western Australia, the Hunter Valley in NSW, Gladstone in Queensland, and Port Bonython in South Australia.⁵⁹ These hubs will require substantial parcels of industrial land to house world-scale electrolysers, ammonia synthesis plants, cryogenic storage facilities, and dedicated port and pipeline infrastructure to enable exports.⁶⁰ The potential for expansion is enormous; a Geoscience Australia assessment identified 262,000 square kilometres of suitable coastal land for hydrogen production, an area sufficient to meet projected global demand in 2050.⁶¹

Battery Manufacturing: The onshoring of the battery value chain will drive demand for specialised industrial and manufacturing land. New facilities for mineral refining, precursor chemical production, and cell manufacturing will likely be concentrated in existing industrial precincts that offer access to skilled labour, logistics networks, and port infrastructure. Key locations identified as potential battery manufacturing hubs include Kwinana (WA), the Hunter Valley (NSW), the Latrobe Valley (VIC), and Central Queensland.²⁸ The physical footprint of these facilities can be significant, as exemplified by Energy Renaissance’s 4,500-square-metre gigafactory in Tomago, NSW, which has an initial production capacity of 1 GWh per year.²³

Data Centres & Digital Infrastructure: The growth of the “sun-export” data industry will require significant land for new hyperscale data centres. A key trend is the shift of these facilities from congested urban centres to regional areas, particularly within Renewable Energy Zones, to access reliable, low-cost power and available land.⁵⁴ This will be complemented by continued investment in the critical digital infrastructure that enables data export, including easements for terrestrial fibre networks and the development of new landing stations for subsea data cables.⁵³

4.2 People: Architecting the Future Workforce

The physical build-out of a new industrial economy must be matched by an equally ambitious build-out of human capital. The net-zero transition will necessitate a workforce transformation of unprecedented scale, speed, and complexity, creating both a significant opportunity for high-skill, high-wage employment and a critical risk of debilitating skills shortages.

The scale of the challenge is immediate and immense. A 2024 report from the University of Technology Sydney found that the renewable electricity workforce alone needs to double in just five years, growing from 33,000 to a peak of 66,000 by 2029, simply to meet Australia’s 2030 renewable energy targets.⁶² If Australia pursues a more ambitious “green energy export” scenario, this workforce would need to almost triple to 96,000 by the late 2020s.⁶²

To meet this demand, a landmark 2023 study by Jobs and Skills Australia, The Clean Energy Generation, identified 38 critical occupations essential for the transition. The list is dominated by two categories: Technicians and Trades Workers and Professionals.⁶³ The most acute shortages are anticipated in the trades, with a projected need for an additional 32,000 electricians by 2030, far exceeding the projected supply.⁶⁴ Similarly, demand for engineers across multiple disciplines will surge.

The required workforce will be highly skilled, demanding a higher proportion of Vocational Education and Training (VET) and university qualifications than the broader labour force.⁶³ The specific skill sets required will be tailored to the new industrial pillars:

• Battery Value Chain: A demand for materials scientists, chemical engineers, electrochemists, and advanced manufacturing specialists to operate and innovate in mineral refining, precursor production, and cell manufacturing facilities.
• Green Steel: A need for metallurgical engineers, process engineers, and hydrogen plant operators with expertise in DRI and EAF technologies, as well as data scientists to optimise these complex industrial processes.
• ‘Sun-Exports’: A requirement for renewable energy engineers to design and deploy vast solar and wind farms, construction managers to oversee these mega-projects, and a new generation of data scientists, network engineers, and AI specialists to operate the green data centres.

This surge in demand creates a severe skills bottleneck, which the International Energy Agency has identified as a key risk that could delay clean energy projects globally.⁶² The challenge for Australia is compounded by intense global competition for the same talent and a pre-existing dependency on skilled migration, with over 50% of the nation’s current electrical engineers having been born overseas.⁶⁴ Addressing this will require a coordinated national effort, as envisioned by the National Energy Workforce Strategy, to reform training and education, create more inclusive pathways into these careers, and attract and retain the necessary talent.⁶⁵

4.3 Possibilities: A New Economic Architecture for Australia

This report has deconstructed the profound structural challenge facing the Australian economy and detailed the transformative potential of the net-zero transition. The synthesis of these findings points to a singular, generational possibility: to deliberately re-architect the foundations of the nation’s prosperity for the 21st century.

Reversing the Decline: The creation of new, high-complexity export industries in battery manufacturing, green steel, and ‘sun-exports’ is the most viable, large-scale mechanism available to arrest and reverse Australia’s decades-long slide down the Economic Complexity Index. It directly confronts the core pathology of over-reliance on unprocessed raw materials by building sophisticated, knowledge-intensive value chains on Australian soil. It is the pathway to transforming the nation’s export profile from one dominated by bulk commodities to one characterised by high-value, technologically advanced products and services.

Building Sovereign Capability: By moving critical stages of processing and manufacturing onshore, from battery precursors and active materials to green iron and steel, Australia fundamentally enhances its economic sovereignty. This strategy reduces the nation’s acute dependence on highly concentrated global supply chains, particularly for the technologies that will power the future economy.² It builds resilient domestic industrial capacity, insulates the economy from geopolitical shocks, and ensures that the value from Australia’s natural resources is captured for the benefit of Australians.

Architecting a Resilient Economy: Ultimately, the net-zero transition offers the opportunity to build a more durable and resilient economic model. It diversifies the national export basket away from the inherent volatility of global commodity cycles and towards products and services with strong, structural, and long-term global demand. It fosters the development of a high-skill, high-wage workforce and stimulates innovation across the economy. This is the pathway to creating a “smart,” diversified, and truly complex economy fit for the challenges and opportunities of the century ahead. It represents the historic possibility for Australia to evolve from being the world’s quarry to a global provider of the foundational processed materials, clean energy, and advanced digital services of the zero-carbon future.

Works cited

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