
By Niusha Shafiabady & Xiaoying Qi*
For more than a century, global geopolitics has revolved around oil and gas. Countries with big fossil fuel reserves, such as Saudi Arabia and Russia, have amassed significant wealth and foreign influence, helping shape the world order.
But the global shift toward renewable energy is challenging these power structures. As the world transitions away from oil and gas, renewable energy resources promise to become the new basis for geopolitical influence.
Nations with a bounty of sun and wind, and the capacity to export that energy, have much to gain. So too do nations endowed with critical minerals, and the means to produce the technology required in a low-carbon world.
Say goodbye to the “petrostates” of old, and welcome the rise of the “electrostate”. China is heading the charge – and Australia, if it plays its cards right, could be at its heels.
A shift is underway
Petrostates are nations rich in oil, gas and coal, and which are heavily dependent on revenue from extracting and exporting these commodities.
Australia is a major exporter of gas and coal. But it lacks the core features of a petrostate - centralised state control of production, the ability to order export cuts, and heavy fiscal reliance on oil and gas rents. Instead, publicly owned resources are developed by private firms under regulation, which gives the government regulatory influence rather than coercive “petro-power.”
World economies have traditionally needed fossil fuels to operate. So, petrostates have used their control of these resources to gain leverage in diplomatic talks, influence global energy prices and create alliances with other nations.
For example, the security partnership between Saudi Arabia and the United States is underpinned by the US’ need for Saudi oil. And moves by Russia to cut gas supply to Europe in 2022 was widely seen as a retaliation for sanctions imposed on Russia following its invasion of Ukraine.
But these fortunes are changing. The Middle East, Russia and the United States gained power in the age of oil. Now, in the age of renewables, a new cohort of electrostates is emerging.
Petrostates wield substantial international influence. Pictured: Saudi Arabia’s Foreign Minister Faisal bin Farhan Al Saud and France’s President Emmanuel Macron attend a United Nations Summit in New York on Palestine this week. ANGELA WEISS/AFP via Getty Images.
What is an electrostate?
The term “electrostate” describes a nation that dominates the energy transition. Instead of oil wells or gas fields, its influence comes from commanding positions in supply chains that underpin electrification. These include:
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critical minerals (such as lithium, cobalt, nickel, rare earths)
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battery production and recycling
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semiconductors and digital infrastructure
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clean energy technologies (such as solar, wind and electric vehicles).
China leads the way in clean energy innovation and development.
It processes about 60% of the world’s lithium and cobalt. It also refines more than 90% of rare earth elements used in electric vehicles, wind turbines and “smart” electricity grids.
Chinese firms CATL and BYD produce more than half of the global supply of lithium-ion batteries – and this capacity is expanding rapidly. What’s more, BYD recently overtook Tesla as the world’s largest EV manufacturer, supported by a vast domestic market.
China produces about 80% of the world’s solar panels, and dominates wind turbine supply chains. And through its Belt and Road Initiative, China has secured access to overseas mines, ports and energy projects.
None of this happened by chance. It’s the result of a deliberate, state-backed strategy executed over two decades.
Beijing combined industrial policy, subsidies and long-term investment with a willingness to absorb early losses for strategic gain. The result? China is now the indispensable player in the global energy transition.
Nations with a bounty of sun and wind have much to gain. Pictured: a wind farm lit by a starry sky in China’s Guizhou Province. Wu Dejun/VCG via Getty Images.
This matters for the world
The rise of electrostates reshuffles the global energy map.
Just as the European Union once worried about maintaining supplies of Russian gas, now it worries about over-dependence on Chinese batteries, critical minerals and fuel cells.
The US, EU, Japan, India and others are racing to reduce reliance on China. Initiatives such as the US Inflation Reduction Act, the EU Critical Raw Materials Act and the Quad’s supply chain cooperation are all responses to China’s dominance.
China has already used its control of the renewables supply chain to exert global influence. For example, earlier this year it restricted exports of seven rare earth elements needed to produce technologies such as electric vehicles. The move was considered a retaliation to tariffs imposed by US President Donald Trump.
Australia’s opportunity
Australia, too, has big electrostate potential. The continent holds some of the world’s largest reserves of lithium, nickel and rare earths. We already supply more than half of global lithium.
But much work is needed to seize this opportunity.
First, rather than just exporting raw minerals, Australia must invest in domestic refining, battery manufacturing and recycling. This would keep more jobs and income in Australia and reduce our reliance on overseas suppliers.
Strategic partnerships are crucial. Australia needs to broaden and deepen cooperation with nations in Asia, Europe, the Middle East and Africa. This would enable us to supply different parts of the world and build domestic manufacturing and processing capacity.
Governments and the private sector must also invest in innovation. That means supporting research in next-generation batteries, hydrogen and electricity grids to maintain technological leadership.
Throughout the expansion, companies extracting critical minerals and producing clean energy should meet high environmental and social standards. This will maintain public trust and international credibility.
All this requires smart policy and international collaboration. Decisions taken in Canberra over the next decade will determine whether Australia depends on electrostates – or becomes one.
*Niusha Shafiabady, Associate Professor in Computational Intelligence, Australian Catholic University and Xiaoying Qi, Associate Professor, School of Arts and Humanities, Australian Catholic University.
This article is republished from The Conversation under a Creative Commons license. Read the original article.
29 Comments
Not possible, we're running out, period. I don't want to hear about any alternatives. PDK.
'Throughout the expansion, companies extracting critical minerals and producing clean energy should meet high environmental and social standards. This will maintain public trust and international credibility.'
Yeah, right. Tui ad.
Yvill, I was co-Chair of Solar Action, back in about 2006/7. Had gone on ahead; ran my house on 50 watts of PV - and that house was passive-solar to a Homestar-8 level. Translated: I thought we could get there, and the sooner the better.
That was 20 years ago. I've kept learning. Working backwards, humanity will end up living on a maintainable energy and material throughput (note, no mention of those, here). Going here to there, does not involve trying to create - or even prolong - our existing rate of consumption. It is unmaintainable.
But we will end up, one way or another, living on real-time solar energy (quite high entropy, after what we've been recently used to). 8 billion people will raze the remaining forest for firewood, fairly quickly, methinks.
I was co-Chair of Solar Action, back in about 2006/7. Had gone on ahead; ran my house on 50 watts of PV - and that house was passive-solar to a Homestar-8 level
I'm confused Power. I thought you were out at the extreme ends of DGM. Solar is snowflake territory if we're on the eve of destruction.
20 years ago I thought there was a chance, if we pushed on.
I know a lot more now.
But PV is stored oil - dissipated over 25-30 years. That's better than not-available.
Gotta keep thinking all things about all things
:)
And there I was thinking that alternative energy generation was all woke propaganda. Solar, in particular, is also very cheap and fast to establish. In Spain recently they had an electricity network 'crisis' because too many people and business used solar on the roof. The demand in the primary grid network collapsed and the price of electricity fell below what was profitable for the large scale generators.
Keeping coal and gas in the generation mix ensures higher overall prices in the NZ electricity sector because these expensive and increasingly scarce resources ensure rising prices and an ongoing dividend stream to shareholders. Which is, after all, the primary purpose of the electricity market in NZ.
Nope.
Without fossil energy - and I'm the first to point out that it's leaving us - none of those 'renewable' technologies are manufactured (dams, windmills, PV).
Never been done, never will be done. The EOREI is too awful - put it another way, you are starting with too-high entropy.
Money doesn't come into it.
So I regard this fleet of PV, as the last of the oil. It will play out over a longer timeframe but play out it will.
Oh - and nobody has maintained a grid ex fossil energy either. Just saying...
Did you know that the oil industry uses solar panels to power extraction and refining because its the cheapest form of energy available. At least in the current economic settings - which as you point out may not be accounting for the real costs of a lot of things.
Google EROEI...you can use 2 litres of fuel driving to and back from the fuel station but if when you get there you can only buy 1.99 litres (or less) the trip is not worth it....how much 'money ' you have is irrelevant.
No, it does it to greenwash.
Where is it doing that anyway? One pilot plant in California and a whole lot of artist's impressions?
Why would you think alternative energy generation is woke propaganda? Simply listening to what scientists have been telling us for a few decades (rather than fake theories based on nothing but selfish preference not to change or make sacrifice) makes it abundantly clear that we must use differently sourced energy. The Spanish outage was not caused by too much solar but by bad grid management that didn’t properly account for the level of solar in the mix. Had these system control settings been different it would not have occurred - now the lessons have hopefully been learnt it won’t happen again provided that settings are properly managed going forward.
NZ only needs to keep coal and gas in the mix until it has sufficient additional renewable capacity. Every kWh of solar, wind or geothermal produced will leave water in hydro lakes to be used as backup when needed. Given technological advances and cost reductions in each of these there really is no excuse for not piling into them - but a different industry environment may be required to provide necessary incentives, particularly given NZ’s aversion to productive investment
Given NZs massive hydro kinetic generation, we should be better protected from grid frequency instability outages.
Definitely. And geothermal also very stable output 24 x 365. But because our hydro capacity is close to tapped out, and because inevitably there are drier years, we need to greatly increase other clean production to reduce hydro dependency (thereby increasing backup and stability) and eliminate fossil fuels from electricity production.
Please define 'clean'.
Unfortunately electricity does not supply all resource needs
No, but could do more eg cars, trucks, trains. And would improve balance of payments and economic resilience not paying billions to import fossil fuels and being more self sufficient
If we had a high percentage of EV's, we would struggle to provide the energy to power them, we would never have off peak rates as everyone will have overcooked the overnight charging, charging at work etc. The demand for electricity would necessitate far greater supply and this could not be subject to weather conditions such as sun and wind, therefore the base load would come from either hydro (high initial investment for this would increase prices regardless for a decade or two until ROI was closer) or most likely, from burning more coal as it is easier.
Either way, we would need a load of oil to fire all the concrete, crush the materials required for it for a new dam, or import coal as we currently do unless we develop local industry which, surprise surprise, uses exorbitant amounts of diesel to fuel the machinery needed to mine said coal, add transport in too.
Even better to replace that significant proportion of car journeys that could be a bike ride or public transport. If you're only moving yourself and a few items a few km, the right tool is a bike for those who are physically able.
Totally agree. And e-bikes work for a lot of people who might not otherwise use one, or who need to go further. Was out on my speedmax for a few hours this morning!
I see we have the resource apocalypse believers in full swing and the unreliable brigade pushing for more unreliables. I like cheap reliable energy. NZ is on the path to more expensive energy whoever you might like to apportion blame for this outcome.
Cheap and reliable in the same ask?
Energy underwrites money, so you're looking for a low(er)-entropy source?
Dams, PV and windmills can be traced, source-wise, to the sun. So too can firewood and - longer timeframe - fossil energy. You have two outliers; geothermal and nuclear (the first geographically-constrained, the latter resource-constrained).
Which are you advocating?
Learn about fast breeder reactors, uranium resource and construction costs. You're welcome.
"cost of uranium would have little effect on the cost of nuclear power: nuclear power’s price is dominated by the cost of power-station construction and decommissioning, not by the cost of the
fuel. Even a price of $300/kg would increase the cost of nuclear energy by only about 0.3 p per kWh."
"The uranium in the oceans is being topped up by rivers, which deliver uranium at a rate of 32 000 tons per year."
https://www.withouthotair.com/c24/page_161.shtml
"Contrary to popular perception, the huge construction expense for nuclear plants isn't the reactor itself but the extensive civil engineering needed to contain it and its support equipment. By placing the reactor deep underground, it's possible to eliminate a lot of the plant and to simplify its design, resulting in a reduction in above-ground construction costs of up to 80%."
https://newatlas.com/energy/mile-deep-nuclear-reactor-30-million/
"“Fundamentally, in light-water reactors, out of the uranium we dig out of the ground, we use a half a percent of the energy that’s in the uranium that’s dug out of the ground,” Gehin told CNBC in a phone interview. “You can get a large fraction of that energy if you were to recycle the fuel through fast reactors.”"
https://www.cnbc.com/2022/06/02/nuclear-waste-us-could-power-the-us-for…
https://www.thestar.com/opinion/contributors/how-ontario-can-transform-…
How much oil is used to mine and refine any useful volume of uranium?
Or everything involved in the construction, operation of and decommissioning of said nuclear plant....and transmission
An order of magnitude less than solar, windmills. I'm surprised you don't know that. Try google?
"The results show that nuclear, hydro, coal, and natural gas power systems (in this order) are one order of magnitude more effective than photovoltaics and wind power."
https://www.sciencedirect.com/science/article/abs/pii/S0360544213000492
"Contrary to popular perception, the huge construction expense for nuclear plants isn't the reactor itself but the extensive civil engineering needed to contain it and its support equipment. By placing the reactor deep underground, it's possible to eliminate a lot of the plant and to simplify its design, resulting in a reduction in above-ground construction costs of up to 80%."
https://newatlas.com/energy/mile-deep-nuclear-reactor-30-million/
"We conclude that the operation of a large nuclear-power system, involving a continuing construction program of starting one new 1000-MW system each month for 100 yrs, would yield a relatively small amount of net energy, under optimistic assumptions. Under less-optimistic assumptions the net-energy yield is negligible to negative. The average net-energy yield increases, somewhat, when optimistic assumptions are added to account for the possibility of improved efficiency in an all-electric economy."
https://www.sciencedirect.com/science/article/abs/pii/0360544288900801
And typically EROEI calculations on nuclear do not include decommissioning costs (in energy) nor waste disposal (storage)
The paper included decommissioning. You're welcome.
EROI of run-of-river hydro power plant, New Zealand, based on numbers from Ref.
[7]. The energy payback times are in the range from 2 years (unbuffered) to 3 years
(buffered).
Installed capacity 90 MW
Lifetime 100 a
Location Waitaki River, New Zealand
Full-load hours 3000 (predictable)
Energy demand construction 1800 TJ
Energy demand maintenance 75 TJ (100 TJ for an assumed turbine replacement not included here)
Decommissioning 60 TJ
EROI 50
EROI, buffered 35
EROIs and key figures [45] of the reference nuclear power plant (100% centrifuge
enrichment in brackets). The energy payback time is about 2 months.
Installed capacity (net) 1340 MW
Full-load hours 8000
Lifetime 60 a
Output 2,315,000 TJ
Construction energy demand 4050 TJ, thereof 35% electrical
Decommissioning energy demand 1150 TJ, thereof 40% electrical
Maintenance energy demand 6900 TJ, thereof 68% electrical
Fuel related energy demand 18,800 TJ (9650 TJ), thereof 68% (40%) electrical
Sum energy demand 30,900 TJ (21,750 TJ), thereof 60% (50%)
electrical
EROI 75 (105)
https://www.sciencedirect.com/science/article/abs/pii/S0360544213000492
In regard to fast breeders why would you mine uranium? Per the link the cost of uranium is a rounding error when it comes to electricity generation. As I said, learn more about fast breeders.
"Ontario began major decarbonization of its electricity generation in the late 1960s, building 20 CANDU reactors in 27 years. The reactors created $450 billion of electricity.
...Remarkably, all of that nuclear energy was generated from less than 1 per cent of those 64,000 tons of uranium fuel; less than 500 tons. The remainder, still well over 63,000 tons of uranium, cannot be used further in our CANDU reactors and is therefore somewhat short-sightedly considered to be nuclear “waste".
....Reactors like the small ARC-100, or larger GE-Hitachi PRISM or TerraPower NATRIUM, coupled with recycling of used fuel by electrorefining, would turn all of our current radioactive nuclear “waste” into fuel.
...At current nuclear power levels Canada’s 64,000 tons “nuclear fuel waste” can provide Ontario with noncarbon energy for over 5,000 years. Its reuse avoids the emission of 430 billion tons of CO2 while generating electricity worth $60 trillion at 10-cents/kWh today.”
https://www.thestar.com/opinion/contributors/how-ontario-can-transform-…
Meanwhile banks no longer applying restrictions to hydrocarbon finance.
"...Bankers interviewed by Bloomberg emphasized the need to finance the vast supply of energy required to power growth in artificial intelligence. Energy security also was an oft-repeated line. Decarbonizing loan books was treated as less of a priority.
“The green premium has gone, as has a lot of the fluff and froth, so the only things that will get funded are those that make economic sense,” said James Socas, a former executive at Blackstone Inc. and Investcorp who now works with the center for private equity and venture capital at the Tuck School of Business.
It’s a shift that’s rapidly upending the traditional understanding of climate finance. Back in 2021, when the world’s biggest banks and asset managers all signed up to net zero alliances, the oft-touted goal was to align portfolios with a target of limiting global warming to 1.5C. Four years later, bankers are now vying for deals that will add to the supply of energy. Much of that will be low-carbon, but banks no longer talk of applying restrictions to fossil finance."
https://www.bloomberg.com/news/articles/2025-09-25/wall-street-is-turni…
Yes. Profile.
Society cannot run on more-entropic energy than it currently does - indeed it is needing to print more debt than it claims in GDP, already. So the reversion to fossil energy.
The joke is that we've already burnt the best; it's gone. And we're about half-way through the accessible resource. So a growth-assuming collection of forward bets is already in trouble - and forward bets is what banks issue.
They are in terminal trouble.
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