Policy Proposal — Working Draft

Australia's
Green New Deal

A 30-year program to transform Australia into the world's dominant renewable energy superpower — and one of its most prosperous nations.

70 TWh Target by 2055
100M Population potential
30 New cities
3% Land required
Contents
01 The Premise 02 The Strategic Case 03 Generation Targets 04 Five Pillars 05 30-Year Phasing 06 Migration & Cities 07 Constraints & Solutions 08 Historical Precedents 09 The Imperative
01

The Premise

Australia possesses a combination of natural advantages that no other nation on Earth shares simultaneously. The question is not whether those advantages exist — it is whether Australia will choose to use them.

The country sits atop some of the world's most abundant solar irradiance. It has 7.7 million square kilometres of land, most of it flat, sparsely populated, and underpurposed. It borders the fastest-growing energy demand region in human history. It has stable institutions, a functioning rule of law, and an established cultural capacity to absorb large-scale immigration.

For decades, Australia has monetised its geography by digging up finite resources and shipping them to Asia. The logic was sound. The execution was competent. The results were prosperous. But the resource depletes. The climate consequences accumulate. And a far larger opportunity has been left largely untouched.

"The sun is simply a better mine. It does not deplete. It gets cheaper to harvest every year. And Australia has more of it than almost anywhere else on the planet."

This proposal sets out a 30-year national program — ambitious in scale, grounded in technical reality, and modelled on precedents that the world has already validated. It is not a green gesture. It is an economic strategy of the first order.

02

The Strategic Case

Three converging global trends make the next decade the critical window for a national commitment of this kind. Miss this window and the opportunity closes — not permanently, but at materially higher cost.

The energy transition is accelerating. Global demand for clean energy is growing faster than any previous energy transition in history. Asia — Australia's immediate neighbourhood — will account for the majority of new electricity demand over the next 30 years. The countries that build generation capacity now will supply that demand. Those that do not will pay others for the privilege.

The AI revolution is energy-hungry. The infrastructure underpinning artificial intelligence — training, inference, data storage — is extraordinarily power-intensive and growing exponentially. Hyperscalers are actively seeking sovereign, stable, green power at scale. Australia can be that location for the Asia-Pacific in the same way that Iceland became the preferred location for European data centres: cheap renewable energy, political stability, and favourable climate.

Australia's current economic model is selling the wrong resource. The Mining Boom demonstrated Australia's capacity to monetise natural resources at scale. It also entrenched a national economic identity built around the extraction of finite assets — and a blinkered reluctance to look beyond them. Renewable energy is the same trade — geography sold to Asia — but with a resource that cannot be exhausted, a global price trajectory that only falls, and downstream economic complexity that the mining sector never generated.

~0.22%
Land used for all Australian cities
90% of the population on a coastal rounding error
~30%
Naturally habitable land
Larger than France, Germany, Spain, Sweden & Norway combined
~3%
Land needed for 50,000+ TWh/yr
At world-class Australian solar irradiance
4M+
Engineering graduates/yr — India & China
Pre-trained workforce available immediately
03

Generation Targets

The following targets are technically achievable at China-equivalent levels of national ambition and effort. They assume aligned policy, a deliberate migration program, and committed export infrastructure — the political and commercial conditions, not the physical ones, are the only limiting factors.

Australia currently generates approximately 270 TWh per year. These targets represent a deliberate, compounding industrial program — not a forecast, but an objective.

Horizon Target Generation Installed Capacity Installation Rate (peak) Land Footprint Binding Constraint
Year 10 — 2035 4,000–6,000 TWh/yr 1,200–2,000 GW 200–300 GW/yr ~15,000–25,000 km² Construction ramp speed; port & logistics capacity
Year 20 — 2045 20,000–28,000 TWh/yr 7,000–10,000 GW 400–500 GW/yr ~90,000–125,000 km² Grid architecture; continent-scale storage
Year 30 — 2055 50,000–70,000 TWh/yr 17,000–24,000 GW 500–600 GW/yr ~210,000–300,000 km² Ambition and capital allocation — not physics

The year 10 figure is the critical threshold. At 4,000–6,000 TWh, the program becomes self-evidently successful — generating sufficient revenue and momentum to fund the next phase without sustained political courage to justify continued expenditure. Year 10 is where the vision either becomes irreversible or fails.

For context: 50,000–70,000 TWh represents approximately twice current global electricity generation. This is the appropriate scale of ambition for a nation with Australia's resource endowment, over a 30-year horizon, measured against the precedents set by China's renewable energy industry.

04

Five Pillars

The program rests on five mutually reinforcing pillars. Each is necessary. None is sufficient alone. Their interdependence is the point — the compounding effect of all five operating simultaneously is what distinguishes a national transformation from an energy policy.

☀️
Generation Infrastructure
Systematic buildout of solar and wind capacity across the interior, prioritising the Pilbara, the outback, and northern Queensland — among the highest-irradiance land masses on Earth. Grid infrastructure built ahead of demand, not reactively. Storage — pumped hydro, grid batteries, green hydrogen buffering — designed from the outset as a continental-scale system.
🏙️
Interior City Program
Purpose-built cities anchored to energy infrastructure, modelled on the mining town precedent but designed for permanence. Universities, hospitals, and cultural institutions built concurrent with industry — not as afterthoughts. Target: 20–30 new cities of 100,000–500,000 people by 2055, transforming the demographic map of the continent.
🌏
Strategic Migration Program
A deliberate, large-scale intake of pre-trained engineers, grid specialists, and technical workers from India and China — the world's largest pools of relevant expertise. Modelled on the ambition of the Ten Pound Pom program but targeted at a technical cohort. Visa pathways designed to attract, not merely permit. Families and communities, not fly-in-fly-out.
🤖
AI & Data Centre Hosting
Positioning Australia as the sovereign green compute hub for the Asia-Pacific. Cheap, abundant, clean power is the primary locational advantage for AI infrastructure. Regulatory stability and Western institutional alignment provide secondary advantages unavailable in most of the region. Active courting of hyperscalers from program inception.
Export Infrastructure
HVDC undersea cable corridors to Singapore, Japan, South Korea, and Indonesia as the primary export mechanism. Green hydrogen and ammonia production as a parallel pathway — decoupling generation from transmission and enabling energy export via existing shipping infrastructure. Export markets developed concurrently with generation capacity, not sequentially.
05

30-Year Phasing

The program is structured in three decade-length phases. Each phase has a distinct character and a distinct primary objective. The phases are sequential in logic but overlapping in execution.

Phase I — 2025–2035 — Foundation
Build the Machine That Builds the Thing
Years 1–2 are almost entirely preparation. Port expansion to receive equipment at scale. Transmission corridor planning and land acquisition across priority solar zones. First-wave city infrastructure in the interior — accommodation, utilities, basic services — to receive incoming technical workforce. Migration pipeline designed and opened.

Years 3–5 see first major ramp: 30–80 GW/year as logistics infrastructure matures. Years 6–10 see compounding: 150–300 GW/year as trained workforce, mature supply chains, and operational grid infrastructure interact. Target by 2035: 4,000–6,000 TWh/year. This is the proof-of-concept decade.
Phase II — 2035–2045 — Scale
Run the Machine at Full Speed
The installation machine built in Phase I operates at full capacity. Engineers who arrived in 2026–2028 are now senior, training the next cohort. Their families are settled; their children are entering Australian universities. A domestic engineering graduate pipeline begins to materialise for the first time.

Grid architecture becomes the dominant engineering challenge — continent-scale storage, transmission management, and load balancing across what is by now one of the world's largest interconnected grids. Interior cities reach critical mass as genuine urban centres. Target by 2045: 20,000–28,000 TWh/year.
Phase III — 2045–2055 — Dominance
Compound the Advantage
By 2045, Australia is already one of the world's largest energy producers. Phase III is about extending and consolidating that position. The domestic human capital base is now unrecognisable — second-generation engineers, world-class universities anchored to the energy sector, and a national identity transformed by three decades of deliberate ambition.

Technology improvements — solar efficiency, battery density, grid management — compound the output of existing installed capacity. The ceiling is no longer physical or technical. It is a question of how much of Australia's land and capital the country chooses to deploy. Target by 2055: 50,000–70,000 TWh/year.
06

Migration & Cities

The migration program and the energy program are not parallel workstreams. They are the same project. One cannot succeed without the other — and together they create a self-reinforcing demographic and economic transformation.

India and China produce approximately 4 million engineering graduates per year between them. A meaningful fraction of that cohort — solar engineers, electrical engineers, civil engineers, grid specialists — are precisely the skills the buildout requires. Many are actively searching for the combination of career trajectory, quality of life, long-term stability, and genuine opportunity that Australia can offer and that neither India nor China currently provides at the same level.

Australia does not need to train this workforce. It needs to attract and receive it.

This is the single greatest structural advantage the Australian program has over the China precedent: China had to grow its engineering base domestically across decades. Australia can recruit two generations of accumulated expertise immediately, from the country that built it.


Skilled migrants bring families. Families require schools, hospitals, and services. Services require more workers. A solar installation workforce of 500,000 in the interior generates a total population multiplier of 3–5x once the full service economy is accounted for. New cities of 200,000–500,000 people, anchored by energy infrastructure, are not implausible within 20 years.

The key lesson from Australia's existing regional migration experience is unambiguous: migrants go where the jobs are good and the community is real. The interior city program must therefore build genuine cities — not camps, not dormitories, not temporary settlements — but places with universities, cultural life, and long-term futures. The energy sector provides the economic anchor. Policy must provide the rest.

50–80M
Plausible population by 2055
Up from ~27M today
20–30
New interior cities
Each anchored to energy infrastructure
500K+
Direct energy workforce
3–5x population multiplier via services
3–5x
Population multiplier per worker
Schools, hospitals, services, culture
07

Constraints & Solutions

This proposal does not minimise the difficulty of what is proposed. The following are the genuine technical and structural constraints — and the responses to each.

Constraint
  • Construction ramp speed in the first decade
Response
  • Immediate migration pipeline for pre-trained engineers; port and logistics infrastructure built in years 1–2 before generation buildout begins
Constraint
  • Continent-scale grid management and storage at 20,000+ TWh
Response
  • Pumped hydro, grid batteries and green hydrogen buffering designed as an integrated system from the outset, not retrofitted; Australia's geography is well-suited to all three
Constraint
  • Export infrastructure bottleneck — generation vastly exceeds domestic demand
Response
  • HVDC cable corridors to Singapore, Japan, South Korea; green hydrogen and ammonia production as a parallel export pathway via existing shipping infrastructure
Constraint
  • Social infrastructure for interior populations
Response
  • Cities built for permanence from inception; universities, hospitals and cultural institutions funded concurrent with industrial infrastructure, not as afterthoughts
Constraint
  • Global manufacturing capacity for solar panels and turbines
Response
  • Australia as demand anchor pulling global supply chain expansion; long-term offtake agreements with manufacturers underwriting capacity investment; domestic manufacturing considered for long-term resilience
08

Historical Precedents

The ambition of this proposal is not without precedent. In each case below, the scale of the undertaking was dismissed as infeasible before it was achieved. The relevant lesson is not that these things were easy. It is that they were done — on the ground, at massive physical scale, by workforces and governments that committed fully and did not flinch at the size of the task.

Precedent What was achieved Timeframe Relevance
China's renewable buildout From negligible to 900+ GW solar installed; world's largest renewable energy producer ~15 years The primary benchmark for this proposal: state-directed capital, industrial policy, and willingness to absorb early losses for long-term strategic gain
Roosevelt's New Deal / TVA 16 dams built across the Tennessee Valley; 40,000 workers at peak; rural electrification lifted from 11% to the majority of US farms. The most impoverished region of the United States transformed in under a decade. 5–6 years The original Green New Deal in all but name — a federal authority with a specific mandate operating across state lines, transforming the economic geography of an entire region. The governance model is as instructive as the output.
Brasília A fully functioning capital city built from scrubland in the Brazilian interior. 100,000 workers on site at peak — the candangos — under the slogan "fifty years in five." Now a city of 3 million. 41 months The most direct parallel to Australia's interior city program: purpose-built urban centres in a vast and largely uninhabited interior, constructed on a political decision and a deadline. Considered logistically impossible before it was done.
US wartime production Aircraft production from ~2,000/yr to 96,000/yr 5 years A 48x industrial ramp in five years under genuine mobilisation — the upper bound for what coordinated national effort can achieve
Australia's Ten Pound Pom program Transformed Australia's demographic and economic profile through mass skilled migration Post-war decades Proof that Australia has the cultural and institutional capacity to absorb and integrate large migration programs deliberately designed around economic objectives
Australia's Mining Boom Resource extraction at continental scale; purpose-built towns; Asian export orientation 1990s–2010s The direct template — same trade logic, same geographic advantage, same Asian demand base. The mental model already exists in Australian culture.
09

The Imperative

The question this proposal asks is not whether Australia is capable of this transformation. The physical resources, the geographic position, the institutional foundations, and the available human capital from neighbouring economies make the answer to that question straightforwardly yes.

The question is whether Australia will choose to pursue it — and whether it will choose to do so in this decade, when the window is open, or in a later decade when it is narrower and more expensive.

Every year of delay has a compounding cost. The installation machine that should be building at 150 GW/year by 2033 builds instead at 15 GW/year. The skilled workers who should be settled in interior cities — electricians, engineers, doctors, tradespeople — are building careers elsewhere. The export contracts that should be locked in with Japanese and Korean utilities have been signed with the next available supplier.

"A 50,000 TWh vision by 2055 that falls short and delivers 35,000 TWh is an extraordinary national success. A cautious 5,000 TWh target achieved on schedule is a modest infrastructure program. The target shapes the outcome, not merely measures it."

Australia has built its prosperity on selling its geography to Asia. It has done this once, with finite resources extracted from the ground. The proposition here is to do it again — permanently, at larger scale, with a resource that appreciates rather than depletes, and with the downstream economic complexity that transforms a resources economy into an industrial one.

The sun rises over Australia every morning. The question is what Australia does with it.