Connect with us

Published

on

China’s thinking around the energy transition shifted drastically in 2020 after president Xi Jinping pledged to reach carbon neutrality before 2060.

Despite a series of major policy developments since then, however, it is still not clear what the new energy system will look like and which pathways are the most efficient for China to reach its carbon neutrality goal.

Our latest research models three scenarios for China’s energy transition: one in which China develops a net-zero emissions energy system before 2055; one in which it achieves this around 2055; and a baseline scenario that extrapolates current development trends. 

We find that a combination of energy efficiency measures, electrification of end-use consumption and a low-carbon power supply based on various renewable energy sources – such as solar and wind – can greatly help the country to achieve its decarbonisation goals by 2055.  

In the most ambitious scenario, China’s power sector will be fossil fuel-free by 2055, while some industries will continue to use a small amount of coal and gas. However, this will be balanced by negative emissions from biomass power plants fitted with carbon capture and storage (BECCS). 

How the dual carbon targets changed the game

When Xi began his speech at the UN General Assembly in September 2020, few had expected him to deliver such a ground-breaking announcement.

In his words: “We aim to have CO2 [carbon dioxide] emissions peak before 2030 and achieve carbon neutrality before 2060.”

This policy is now more commonly known as the “dual carbon” goals.

That one sentence changed the whole understanding of the energy transformation in China. 

Until then, China’s target was to “promote a revolution in energy production and consumption, and build an energy sector that is clean, low-carbon, safe and efficient”, as Xi had said at the 19th National Congress of the Communist Party in China (CPC) in October 2017.

Xi’s 2020 speech shifted China’s priorities from reaching “low-carbon” to reaching “carbon neutrality”, from an energy sector that includes at least some fossil fuel consumption, to an energy sector which leaves little room for coal, oil and gas once carbon neutrality is reached.

The difference required a genuine change of mindset throughout China’s political system and stakeholders within the energy system, such as major power producers.

China started this immediately after the announcement: the State Council, China’s top administrative body, introduced the 1+N policy strategy, which is comprised of an overarching guideline for reaching the “dual carbon” goals (the “1”) and a number of more concrete guidelines and regulations to implement the strategy (the “N”). 

So far, the policies have mainly focused on reaching the carbon peak before 2030 – but the long-term goal of carbon neutrality by 2060 is ever-present.

The National Energy Administration (NEA) has launched a blueprint for a new type of power system. At a broader level, several government departments have outlined efforts to transform the entire energy system, as opposed to just the power system, in the effort to reach carbon neutrality. 

Hence, the foundation for China’s energy transformation is much more solid and precise today than it was before Xi’s announcement. The question now is: what will the new type of energy system look like and how will China reach it?

Back to top

Three scenarios for China’s energy transformation

To answer these questions, our programme modelled three scenarios for China’s energy transformation: one in which China develops a net-zero emissions energy system before 2055; one in which it achieves this around 2055; and a baseline scenario that extrapolates current development trends. 

The analysis is based on a detailed bottom-up modelling approach, while, at the same time, using visions for a “Beautiful China” – an official initiative for “the nation’s green and high-quality growth” – as guidelines for the transformation. 

In our modelling, the overarching strategy for the energy transformation consists of three intertwined actions:

  • Increase energy efficiency throughout the supply chain. 
  • Electrify the end-use sectors as much as possible.
  • Transform the power sector into a “green”, fossil-free sector with solar and wind power as the backbone of the system.

    (The Intergovernmental Panel on Climate Change’s latest assessment report showed that these are key elements of all global pathways that limit warming to 1.5C or 2C.)

    A consequence of following this strategy would be that the Chinese energy system would be able to provide energy for sustainable economic growth in China with net-zero carbon emissions, improved air quality and a high level of energy security.

    In the most ambitious scenario, the Chinese power system would be carbon-neutral from 2045 – and the whole energy system before 2055.

    Compared to today, total primary energy consumption would be lower in 2060 despite economic growth. Moreover, coal, oil and gas would be practically phased out of the system – and dependence on imported fossil fuels would be eliminated.

    The figure below shows the energy flowing through China’s economy in 2021 (upper panel) compared with the energy flow in 2060 under this most ambitious scenario (lower panel).

    On the left, each panel shows sources of primary energy flowing into the economy such as coal (black), gas (pink), oil (shades of grey) and non-fossil fuels such as nuclear (brown), hydro (dark blue), wind (light blue) and solar (yellow).

    The centre of each panel illustrates the transformation of primary energy into more useful forms, such as electricity or refined oil products. Much of the primary energy contained in fossil fuels is wasted at this stage (“losses”) in the form of waste heat.

    On the right, the users of final energy are broken down by sector.

    Most notably, fossil fuels – particularly coal – are the largest sources of energy in 2021, whereas in the ambitious 2060 scenario, below, low-carbon sources dominate.

    China Energy Flow Chart
    China Energy Flow Chart
    Left: Sources of primary energy in China. Centre: Transformation of primary energy into more useful forms. Right: Users of final energy by sector. Top panel: Energy flows in 2021. Bottom: 2060. Credit: ERI (2023).

    Back to top

    Three phases in China’s energy transformation

    Our study suggests the transformation pathway will have three main phases. The first phase is the peaking phase until 2030.

    During this period, the deployment of wind and solar power would continue to increase, while electrification of the industry and transport sectors would gain momentum.

    However, coal and oil would remain the dominant energy sources in terms of total primary energy consumption.

    Next is the “energy revolution” phase, from 2030 to 2050. During this phase, solar and wind power would become the main energy sources for electricity supply, and the electrification of the end-use sectors would be substantial.

    The shift away from fossil fuels minimises the loss of waste heat in electricity generation and refining. Meanwhile, “green hydrogen” made from renewable power would become increasingly important in the industrial sectors.

    The third phase is the consolidation phase, from 2050 to 2060. Decarbonisation occurs in sub-sectors that are challenging to electrify, such as the steel and chemicals industries, the old solar and wind power plants are replaced by new solar and wind power, and remaining fossil fuels in the energy mix are nearly phased out.

    Back to top

    Coal power plants become flexibility providers

    Although the Chinese government plans to “phase down” coal from 2025, based on the current policy guidelines and market situation, we estimate that coal power capacity would not be rapidly removed in any of our three scenarios. 

    Instead, coal power plants would gradually become providers of energy security and capacity to meet peaks in electricity demand, and not generate large amounts of electricity.

    By the time they reach the end of their expected lifetime of around 30 years, the plants would be shut down and not replaced with new coal capacity. In our most ambitious scenario, the last coal power plants are closed in 2055, as shown in the figure below. 

    The upper panel in the figure shows the installed capacity of coal power plants and the lower panel their electricity production from 2021 to 2060.

    Installed coal capacity will peak in the late 2020s and steadily decline
    Coal power generation will peak in 2030, and fall to 26TWh by 2055
    Top: coal power capacity 2021-2060, gigawatts. Bottom: coal power generation 2021-2060, terawatt hours. Credit: ERI (2023)

    Meanwhile, gas does not play a significant role in the power sector in our scenarios, as solar and wind can provide cheaper electricity while existing coal power plants – together with scaled-up expansion of energy storage and demand-side response facilities – can provide sufficient flexibility and peak-load capacity.

    Back to top

    Managing a grid dominated by variable wind and solar

    An energy system that relies on solar and wind power as main suppliers of power requires special flexibility measures to match production and demand. 

    The figure below shows a modelled example of an hourly electricity balance in a week in the summer of 2060 under our more ambitious scenario of achieving carbon neutrality before 2055.

    The top panel shows electricity production on the supply side. In the daytime solar power (yellow) dominates the production of electricity, while wind power plants (light blue) have a more stable output throughout the 24-hour period.

    In the evening and at night, electricity storage is discharged (purple) and hydropower production (dark blue) is higher than in the daytime.

    The lower panel shows electricity use on the demand side. Storage (purple) is charged in the daytime and electric vehicle (EV) smart charging (blue) provides flexibility throughout the week.

    A safe, efficient, and green electricity system dominated by wind and solar power
    Top: Electricity supply on a hypothetical summer week in 2060. Bottom: Electricity demand. Credit: ERI (2023)

    As a backup, vehicle-to-grid supply plays an important role – not necessarily as a significant energy provider but as a last-resort capacity that can be activated if necessary, when wind and solar output is low. This solution is a cheap and efficient way to ensure sufficient capacity in the power system.

    Before 2055, coal power plants could be equally reliable and affordable providers of capacity for the power system, even though they would not generate much electricity on average, as mentioned earlier.

    This way of creating flexibility might seem complicated to manage in terms of daily dispatch (the process of managing supply and demand). However, an efficient and well-functioning electricity market, including consumers and producers, can do the job.

    Removing the barriers to electricity trading among provinces and constructing a unified national electricity market would be a key enabler of this.

    Back to top

    Visions for the future

    The scenarios from our China Energy Transformation Outlook give a range of quantified visions of the long-term future in a net-zero energy system.

    Our detailed model of the power system and other energy end-use sectors make it possible to link the development of this new energy system with policy measures that could bring about this transformation.

    One key insight from our work relates to the timing of the different phases of China’s energy transformation, mentioned above. Our modelling suggests that successful coordination of these phases will be crucial, in order to maintain energy security while avoiding unnecessary investments in energy infrastructure.

    Other key enablers in our scenarios are the investments needed to expand the electricity grid, the development of a national electricity market and support for energy system flexibility.

    Even with the best visions, and insights from pathways such as ours, there will be many challenges and barriers ahead to overcome if China is to reach its 2060 goal.

    Our scenarios show, however, that there are feasible and cost-efficient pathways which can be implemented without waiting for new technological breakthroughs.

    Back to top

    The post Guest post: How China’s energy system can reach carbon neutrality before 2055 appeared first on Carbon Brief.

    Guest post: How China’s energy system can reach carbon neutrality before 2055

    Continue Reading

    Climate Change

    Indonesia’s nickel production cuts are not enough to create a sustainable industry 

    Published

    on

    Bhima Yudhistira Adhinegara is the Executive Director of the Center of Economic and Law Studies (CELIOS), an Indonesia-based economic think tank. Muhammad Zulfikar Rakhmat is the Director of the China-Indonesia desk at CELIOS. 

    Indonesia produces around 60% of the world’s nickel, a metal used to manufacture batteries for electric vehicles (EVs) – more than any other country in the world. But in 2026, the government sharply reduced how much of its nickel can be extracted from the ground.

    Production quotas were reduced by around 40% this year compared to 2025. Weda Bay, the largest nickel mine on Earth, had its allowance cut by more than 70% and exhausted its full-year quota by the end of May, halting mining entirely; it cannot resume large-scale extraction until next year unless regulators grant an extension.

    The policy has sparked a vivid debate in Indonesian policy circles: how can the country shift its strategy from a decade of mining vast quantities of cheap nickel to producing a high-value and low-carbon material that the rest of the world wants for EV batteries.

    The cuts aren’t a silver bullet to clean up Indonesia’s nickel industry, whose smelters are powered by coal – the most polluting fossil fuels. But alongside stricter enforcement of environmental rules, it is one side of efforts to produce more sustainable nickel for a premium.

    Restricting Indonesia’s nickel output

    Production quotas were introduced to stop the collapse of nickel prices because of oversupply in the market. Prices had fallen more than 40% in 2023 alone and kept sliding as Indonesian supply kept growing, hitting a four-year low of around $13,900 a ton in late 2025.

    Critics called the recent tightening of production quotas proof that Indonesia’s nickel strategy has failed, arguing that the industry shouldn’t need to throttle its own output to survive. But when assessed against what the policy was supposed to do – push up nickel prices – it has worked. Prices jumped to $20,000 a ton in May, the highest since 2024.

      Chinese industry groups representing companies that have invested billions to mine and refine the country’s nickel were furious, warning Indonesia’s president Prabowo Subianto that the cuts put $50 billion worth of investment at risk. But much of that Chinese capital is sunk into smelters and processing plants built specifically to run on Indonesian ore, and cannot simply be moved elsewhere. That gives Jakarta more room to hold its ground than the warning suggests.

      Stronger environmental enforcement

      Since the start of the year, Indonesia’s forestry task force has seized more than four million hectares of land from mines and plantations operating illegally in protected forests, collecting over two trillion rupiah ($113 million) in fines.

      This included 148 hectares seized from Weda Bay for lacking a forestry permit. The share of nickel produced from illegal small-scale mining also fell from about a quarter in 2022 to roughly 10% by 2024.

      The crackdown responds to serious environmental damages in the nickel industry. On Obi Island, a waste pond collapsed after heavy rain in June 2025, flooding three villages and killing a resident. Internal company tests found chromium-6 – a carcinogen – in the water, in quantities far above the legal limit. The footprint of another mine near Raja Ampat, which is home to some of the world’s richest coral reefs, grew 60-fold in just eight years.

      A coastal village is wedged between the sea and a large nickel mine in Indonesia
      The fishing villages of Tapunggaya in Sulawesi, Indonesia, are squeezed between the sea and an expanding nickel mine (Photo by Garry Lotulung/NurPhoto)

      The market is responding to early cleanup efforts. Low-carbon nickel now sells for a real premium, roughly $18,800 to $19,300 a ton compared with $17,900 to $18,300 otherwise, as carmakers seek to source cleaner materials to comply with the European Union’s new emissions rules for imports.

      In turn, this is incentivising the industry to do more to green its operations. Vale Indonesia’s smelter in South Sulawesi now runs almost entirely on hydropower, for example.

      None of this addresses coal use, however. Major Indonesian nickel producers still emitted an estimated 15 million metric tons of greenhouse gases in 2023. Indonesia may be cracking down on illegal mining and rewarding cleaner producers but it is still running its mines on the dirtiest fuel available.

      Unequal benefits

      For Indonesia to truly benefit from producing cleaner and high-value nickel, it needs to reap the economic benefits too. Although the industry has boosted the country’s economic growth, the reality on the ground tells a different story.

      Konawe in Southeast Sulawesi is home to a major smelting complex. Growth in the district jumped from 6% to 22% between 2015 and 2023, driven almost entirely by the nickel industry, according to a study by the Lowy Institute study. At the same time, poverty levels increased slightly and unemployment remained unchanged.

        In Halmahera, another epicentre of the nickel industry, spending by the poorest fifth grew just 5% between 2019 and 2022, compared with 28% for the wealthiest fifth, according to a separate study.

        Part of the reason for this inequality is the system for transferring mining royalties to district authorities where the mines are located. In theory, they are entitled to the largest share. But in practice, payments are delayed, companies routinely dispute what they owe and royalties are pooled and distributed across a larger area.

        The Natural Resource Governance Institute has found that decentralisation handed local governments power to approve new mines faster than they could build their capacity to manage them. Higher output raises national income on paper, but local governments remain constrained by fiscal rules and infrastructure costs that scale with mining.

        None of this makes the 2026 quota cuts a mistake. Indonesia has every right to defend its pricing power over a resource it controls. But limiting extraction isn’t going to fix underlying issues around environmental enforcement and revenue-sharing. That requires rules that are consistently enforced, royalties that reach communities living by the mines, and a plan to wean smelters off coal.

        The post Indonesia’s nickel production cuts are not enough to create a sustainable industry  appeared first on Climate Home News.

        Indonesia’s nickel production cuts are not enough to create a sustainable industry 

        Continue Reading

        Climate Change

        Risk of “catastrophic” oil spill reaching Kimberley coast found in Woodside’s Scott Reef gas drilling plans

        Published

        on

        SYDNEY, Monday 24 August 2026 – New analysis of Woodside modelling released by Greenpeace Australia Pacific and Environs Kimberley has revealed the oil and gas corporation’s plans to drill at Scott Reef could cause an oil spill up to 30 times bigger than the 2009 Montara disaster, impacting the Kimberley coastline and reaching as far as Indonesia.

        The new analysis details the “catastrophic” oil spill risk put to environmental regulators for approval by Woodside in its Browse to North West Shelf Project (Browse) plans, the worst-case scenario being a blowout directly below Scott Reef, polluting whale migratory pathways and covering isolated turtle nesting ground with oil condensate.

        An FOI application (F348) revealed the federal environment department (DCCEEW) asked offshore oil and gas regulator NOPSEMA to look into the oil spill risk in 2025. NOPSEMA’s response to the application refused access to its report, and one document shows DCCEEW sought further advice this year.

        Greenpeace and Environs Kimberley are calling on the Federal Government to publicly release the NOPSEMA report given the risk of an uncontrolled release of oil condensate from directly below Scott Reef.

        Hannah Schuch, Senior Campaigner at Greenpeace Australia Pacific, said: “Woodside is aware that drilling at Scott Reef risks a massive oil spill that would have severe, far-reaching consequences. It appears environmental regulators are aware too.

        “The state and federal governments need to take this risk from Woodside’s drilling plans seriously, as they could end up allowing the worst oil spill in Australian history.

        “The pygmy blue whales that migrate up and down the WA coast with their newborns each year could be swimming and feeding in toxic, oil-slicked water. Woodside’s proposal to drill at Scott Reef is an environmental disaster waiting to happen, and the WA and federal governments have one surefire way to prevent catastrophe — reject Browse.”

        Martin Prichard, Executive Director at Environs Kimberley, said: “A catastrophic oil spill by Woodside would be disastrous not just for marine life in the area but also for the Kimberley’s $500 million tourism industry.

        “The state and federal governments will see five marine parks on the Kimberley coast included in the risk area of a catastrophic Woodside oil spill.

        “The Montara oil spill was disastrous for West Timor with the toxic oil destroying seaweed farmers’ livelihoods. The Kimberley dodged a bullet with Montara, we were lucky the spill didn’t head our way. Myself and a crew flew over the Montara oil spill and followed it as far as we could. It was like a scene from a disaster movie.”

        After the WA Environmental Protection Authority deemed Browse “unacceptable” due, in part, to oil spill risk, Woodside submitted a mitigation plan based on technology that has never been used “in anger”, a weakness stated in an independent expert review of the plan.

        Professor Richard Steiner, independent oil spill expert, said: “A large offshore spill is impossible to effectively contain or recover. Historically, only 2-6% of total spill volume is recovered and the ecological injury from the release of toxic hydrocarbons in the sea can be severe, extensive, and long-term.

        “Here in Alaska, government research concludes that several marine populations injured by the 1989 Exxon Valdez oil spill, including whales, fish, and seabirds, are still not recovering today, 37 years later. We should expect similar long-term ecological impacts in Western Australia if there were to be a major oil spill. The only sure way to avoid the risk of a catastrophic marine oil spill is to not develop oil and gas projects in marine environments.”

        -ENDS-

        Media contact

        Emma Sangalli on emma.sangalli@greenpeace.org or 0431 513 465

        Risk of “catastrophic” oil spill reaching Kimberley coast found in Woodside’s Scott Reef gas drilling plans

        Continue Reading

        Climate Change

        Woodside’s own modelling reveals catastrophic oil spill risk at Scott Reef

        Published

        on

        What if Australia’s worst offshore oil spill hasn’t happened yet?

        I’m terrified by the thought.

        Our new report in partnership with Environs Kimberley analyses Woodside’s own oil spill modelling and it reveals a worst-case blowout at the corporation’s proposed Browse gas project at Scott Reef could be up to 30 times larger than the Montara oil spill – one of Australia’s worst environmental disasters to date.

        Woodside’s own modelling warns that oil pollution could spread across Scott Reef, the Kimberley coast and beyond, with impacts Woodside itself describes as “severe”, “potentially irreversible” and “catastrophic”.

        Montara oil spill
        Montara oil field on fire © A Crude Injustice

        What’s at stake?

        Scott Reef really is like nowhere else on Earth.

        Scott Reef is Australia’s largest freestanding oceanic reef, a pristine marine ecosystem that has thrived for around 15 million years. About 270 kilometres off the Kimberley coast, it supports more than 2,000 marine species, including endangered pygmy blue whales, nesting green sea turtles, the endangered dusky sea snake and ancient corals.

        Yet Woodside wants to drill up to 57 toxic wells around and underneath it, causing decades of deafening seismic blasting, light and noise pollution, shipping traffic and, of course, the risk of a ‘catastrophic’ oil spill.

        fish shoals at scott reef

        What did Woodside’s modelling find?

        Before Browse can be approved, Woodside is required to assess what could happen if something goes wrong. We analysed the corporation’s own environmental assessment documents, and the findings are deeply concerning.

        Woodside’s modelling shows that the most severe Browse scenario would be the worst oil spill in Australian history, releasing up to 893,739 barrels of condensate into the Timor Sea. For context, the Montara oil spill released 30,000 barrels of oil.

        A blowout of this scale could see oil spread hundreds of kilometres, reaching some of Australia’s most important marine environments, extending into Indonesian and Timor-Leste waters and even washing up along parts of the Kimberley coast. Entrained oil – oil mixed throughout the water column – is predicted to travel up to 863 kilometres from the spill site.

        The modelling identifies potential impacts to at least nine marine parks, eight reefs and three Indigenous Protected Areas, as well as important habitats for endangered species, including pygmy blue whales, green sea turtles, seabirds and other marine life.

        The potential Browse oil spill reach and the marine parks at risk © Greenpeace
        The potential Browse oil spill reach and the marine parks at risk © Greenpeace

        These aren’t just places on a map. They are globally significant marine ecosystems that support ancient coral reefs, endangered wildlife, tourism, fisheries and coastal communities. A spill of this scale wouldn’t simply affect one reef; it has the potential to impact an entire connected marine ecosystem.

        Why this matters now

        The most important thing is that Browse has not yet been approved. That means there is still time to stop Browse and the serious risks outlined in Woodside’s own modelling.

        The science has been done. The risks have been modelled. The decision now rests with the Australian Government.

        Governments are often forced to respond after environmental disasters happen. This is one of those rare moments where they have the opportunity to act before one does.

        What you can do

        Together, we still have the power to stop Woodside and save Scott Reef.

        You can help by:

        The more people who support saving Scott Reef, the harder it is for governments to approve Woodside’s drilling plans – Browse.

        Together, we can ensure a reef that has existed for millions of years is known for its incredible biodiversity – not as the site of Australia’s worst oil spill.

        Let’s save Scott Reef.

        What if Australia’s worst offshore oil spill hasn’t happened yet?

        Continue Reading

        Trending

        Copyright © 2022 BreakingClimateChange.com