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The share of electricity in Great Britain generated from burning coal and gas fell to a record-low 2.4% earlier this month, Carbon Brief analysis shows.

The record low was reached at lunchtime on Monday 15 April and lasted for one hour. There have been a record 75 half-hour periods in 2024 to date when fossil fuels met less than 5% of demand.

There were only five such periods during the whole of 2022 – and just 16 last year.

The findings show that National Grid Electricity System Operator (NGESO) is closing in on its target of running the country’s electricity network without fossil fuels, for short periods, by 2025.

NGESO is “confident” this target will be met, its director of system operations tells Carbon Brief, adding that achieving the goal will be “absolutely groundbreaking and pretty much world leading”.

However, Carbon Brief’s analysis also illustrates some of the challenges to meeting the government’s target of a fully decarbonised electricity grid by 2035.

Fossil fuels fall

The island of Great Britain, comprising England, Scotland and Wales, has its own independent electricity system, which is managed at the transmission level by NGESO.

The transmission grid is effectively the motorway network for electricity.

It links large-scale electricity suppliers such as coal, gas and nuclear power plants to centres of demand, in towns and cities around the country.

Other companies run the low-voltage “distribution” networks, which take power from the transmission grid and distribute it to individual homes and businesses.

For most of its existence, this system had remained largely unchanged for decades. More recently, it has been in the midst of a rapid transformation as part of national efforts to reduce emissions.

In 2009, some 74% of GB electricity was coming from fossil fuels and only 2% was from renewables.

By 2023, there were several thousand large renewable sites dotted around the country, as well as nearly 1.5m small solar installations on the roofs of homes, offices and warehouses.

Only a third of GB electricity in 2023 came from fossil fuels – with 40% from renewables.

Yet these annual figures disguise even greater changes in the month-to-month, day-to-day, hour-to-hour and second-by-second operation of the electricity system.

The figure below shows the share of electricity in Great Britain being generated by fossil fuels in each half-hour period since 2009, including the record-low of 2.4% earlier this month.

Share of GB electricity from fossil fuels in each half-hour period, %, 2009-2024 to date. Source: National Grid Electricity System Operator.
Share of GB electricity from fossil fuels in each half-hour period, %, 2009-2024 to date. Source: National Grid Electricity System Operator. Chart by Carbon Brief.

The figure above shows how unprecedented it is for fossil fuels to be meeting such low shares of demand on the GB grid.

Indeed, the lowest half-hourly fossil fuel share in 2009 was 53% and, as recently as 2018, it had never dipped below 10%. The first half-hour period with less than 5% fossil fuels only came in 2022, when there were five such periods in total across the year.

During 2023, there were just 16 half-hour periods with less than 5% fossil fuels – the majority of which came during December of that year.

In contrast, there have already been 75 half-hours with less than 5% fossil fuels in 2024 to date.

The shift to ever lower fossil fuel use is illustrated in the figure below, which shows daily average shares starting to regularly drop below 10% in December 2023 and April 2024.

Daily average share of GB electricity from fossil fuels, %, 2009-2024 to date.
Daily average share of GB electricity from fossil fuels, %, 2009-2024 to date. Source: National Grid Electricity System Operator. Chart by Carbon Brief.

The daily average fossil fuel share fell to a record low of 6.4% on 5 April 2024, with the average on 15 April 2024 standing at 7.0%. Until 2022, the daily average had never been below 10%.

‘Zero-carbon operation’

Carbon Brief’s analysis shows that NGESO is closing in on the target, first set in 2019, of being able to operate the grid with “zero carbon”, for short periods, by 2025.

(NGESO defines this target as being able to run the GB transmission grid without fossil fuels. It bases its goal on a metric of 100% “zero-carbon operation”, meaning the share of demand, excluding imports, being met by renewables connected to the transmission grid or nuclear. It says this metric reached a peak of 90% during two half-hour periods in January and March 2023.)

The first-ever period of at least 30 minutes of “zero carbon operation” is most likely to come in autumn 2025, Craig Dyke, NGESO director of system operations tells Carbon Brief. “We’re confident that we will have the right capabilities on the system to be able to do that,” he adds.

Dyke says this moment will be “absolutely groundbreaking and pretty much world leading”, particularly given the size of the GB economy and the fact that, as an island, its grid is relatively isolated from neighbouring countries.

There have been two separate challenges in reaching this target. The first is having enough low-carbon electricity supplies to be able to cover demand during a given half-hour period.

The second challenge is having the technical capability to keep the grid stable without fossil fuels.

@DrSimEvans on X: I've always felt that supposedly intractable high-renewable grid stability issues

These technical requirements include maintaining the frequency of electricity supplies at close to 50Hz and responding to rapid changes in supply and demand through operational reserves.

NGESO also maintains the ability to restart the grid in the case of a total shutdown, sometimes referred to as “black start”, but now more formally called “restoration”.

Increases in wind and solar capacity mean low-carbon sources are now already sufficient to meet 100% of electricity demand in some periods. However, on the technical side, the 2025 target has been a “significant engineering challenge”, Dyke says:

“Getting to the 2025 ambition has been a significant engineering challenge, which we are solving.”

Grid services have, historically, been provided by fossil fuel power plants. Over the past five years, however, NGESO has been changing the way it procures these services, as well as reforming the rules of grid operation and the way it balances the grid in real time.

For example, through its “pathfinder” projects NGESO has contracted a series of sites that can offer grid services without fossil fuels. These include “synchronous condensers”, effectively giant spinning turbines that provide grid stability without burning fossil fuels.

Other key innovations include the use of batteries to manage the frequency of the grid and “grid forming inverters”, which use sophisticated power electronics to offer different types of grid support.

This development means renewable projects will be able to contribute grid stability services, such as “inertia”, that have traditionally only been offered by conventional fossil fuel generators.

Dyke tells Carbon Brief:

“This hasn’t just happened overnight. It’s been a culmination of a significant amount of effort over a number of years. That’s not just us [NGESO] operating in isolation, that’s planning and collaboration with industry, with [energy regulator] Ofgem and with the government…It’s not just about technologies, it’s about hearts and minds and processes and systems and people working together.”

Fully decarbonised grid

For NGESO, the 2025 goal is a stepping stone on the way to being able to run the grid at zero carbon constantly by 2035, in line with the government target of “fully decarbonised” electricity.

(The opposition Labour party is targeting a decarbonised grid by 2030. This target is seen as incredibly ambitious – and possibly even “unachievable” overall. A spokesperson for NGESO tells Carbon Brief: “Our previously published scenarios shows it is achievable – although challenging.”)

There are several further technical challenges to meeting this 2035 goal.

For example, the rise of variable wind and solar has expanded the ups and downs of fossil fuels in the mix, illustrated by the range between peaks and troughs in the first figure, above.

This is illustrated further in the simplified figure, below, by the increasing gap between the highest and lowest fossil fuel shares seen in each year (upper and lower blue lines, respectively).

The figure below also shows the annual average fossil fuel share of electricity (dashed line) falling from 74% in 2009 to 26% in 2024 to date. (The small increase in this annual average in 2022 was due to the GB grid exporting gas-fired power to France, where much of the nuclear fleet was offline.)

Maximum, minimum and annual average fossil fuel shares of electricity in Great Britain, %, 2009-2024 to date.
Maximum, minimum and annual average fossil fuel shares of electricity in Great Britain, %, 2009-2024 to date. Source: National Grid Electricity System Operator. Chart by Carbon Brief.

Notably, the maximum fossil fuel share in each half-hour period has declined more slowly than the average or minimum figures, falling from 88% in 2009 to 72% in 2023 and 66% in 2024 to date.

This reflects the fact that the GB grid still relies on gas-fired power stations being able to switch on when the wind is not blowing and the sun is not shining.

Crucially, the nation will need low-carbon alternatives to this gas capacity in order to reach the government’s target of a fully decarbonised grid by 2035.

These alternatives will need to operate across a range of different timescales, from seconds through to weeks and even years. For within-day timescales, this is likely to mean expanding energy storage capacity, principally with batteries, but also pumped hydro or compressed air.

For periods of weeks or seasons, the options include ongoing reliance on unabated gas – which would be incompatible with carbon targets – or the use of hydrogen turbines or gas plants that are coupled with carbon capture and storage (CCS).

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Climate Change

From firefighting to future-proofing: Preventing wildfires must be the priority

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Gill Einhorn is head of the Forest Future Alliance and Natalie Çilem is community lead of the Global Wildfire Leadership Network.

Wildfires have devastated communities across the world this summer, claiming lives, displacing thousands of people and leaving billions in economic damage in their wake. In Europe alone, wildfires have already caused an estimated €19 billion in losses this year.

They are an economic, financial and public health challenge that is growing faster than many governments and markets are prepared for – and exposing the real costs of poor land management.

A system built for recovery, not resilience

Far more money is currently spent responding to the disastrous effects of wildfires than preventing them in the first place. The United Nations Environment Programme estimates that more than half of wildfire-related spending goes towards response, while planning receives only around 0.2 percent. This problem is not limited to wildfires; over 95 percent of disaster aid between 2005 and 2017 was allocated to response, and less than 4 percent was directed towards prevention or preparedness.

Forests are critical, but without investment in how land is managed and protected, their value is neither stable nor guaranteed. Protecting forests requires investing not only in conservation, but in the conditions that keep forests standing.

    Each dollar invested in wildfire-resistant construction could save around $210 in avoided future economic losses, according to a report by the World Economic Forum and Forest Future Alliance. Despite this evidence that prevention can significantly reduce future costs, wildfire resilience remains chronically underfunded.

    This spending discrepancy is creating significant challenges for insurers, asset owners and financial institutions. Global insured losses from natural catastrophes reached $107 billion in 2025, with wildfires, floods and storms accounting for 92 percent of claims.

    In this context, insurers are reassessing where and how they are willing to underwrite risk. Around 56 percent of global wildfire losses between 2000 and 2023 were uninsured. In some high-risk areas, insurers are scaling back coverage altogether, leaving homeowners, businesses and governments to shoulder a growing share of the costs – making it increasingly difficult to break even.

    Proven solutions are already paying off

    In many regions, wildfires are driven not by natural causes but by the deliberate clearing of land for agriculture. Degraded landscapes are becoming drier, more flammable and increasingly vulnerable to catastrophic loss, creating a vicious cycle of deforestation, economic damage and rising emissions.

    The answer is not simply stronger firefighting capacity. Governments, investors and businesses must work together to shift capital upstream into prevention, resilience and long-term landscape stewardship of healthy forests. That means planting appropriately, investing in heat-resistant species, exploring approaches that minimise fire footprints through active management, and exploring the AI and technology solutions that are burgeoning.

    A burnt olive tree in an area affected by a wildfire in Ano Sichaina near Patras, Greece, August 14, 2025. REUTERS/Louiza Vradi

    A burnt olive tree in an area affected by a wildfire in Ano Sichaina near Patras, Greece, August 14, 2025. REUTERS/Louiza Vradi

    Solutions to this already exist and are proven to have an impact. Following devastating wildfires year-on-year, Portugal shifted its approach to wildfire management, increasing prevention spending within its national rural fire management system from around 20 percent in 2017 to approximately 60 percent in 2022. While many countries remain locked in a reactive cycle of disaster response, public policy can shift investment upstream and make resilience a priority before fires occur.

    Indigenous communities have long used proactive land stewardship to reduce wildfire risk while supporting healthy and productive landscapes. For example, the Cheslatta Carrier Nation in British Columbia traditionally managed fuels through cultural fire practices but now implements mechanised fuel removal methods under commercial agreements. By combining Indigenous stewardship with sustainable forest management, Cheslatta is generating community benefits while also boosting wildfire prevention.

    Resilience can also be strengthened through finance and technology. FireSat, a partnership led by Earth Fire Alliance with Google.org, the Gordon and Betty Moore Foundation and Muon, is a satellite constellation designed for rapid wildfire detection. Scanning every 20 minutes, it can detect fires 400 times smaller than current systems and track them through smoke and darkness in almost real time. In California alone, FireSat could prevent up to 350,000 acres from burning each year. It has recently received significant new investments allowing it to expand towards a constellation of more than 50 satellites that will monitor every point on Earth every 20 minutes or less.

    In Brazil’s Pantanal, the Embrace the Forest initiative uses AI-powered detection towers across 2.5 million hectares to support earlier intervention and faster response. During the severe 2024 fire season, the initiative contributed to a 40 percent reduction in burned area compared to 2020.

    A drone view shows burnt cars following a wildfire in Dymi, near Patras, Greece August 14, 2025. REUTERS/Louiza Vradi

    A drone view shows burnt cars following a wildfire in Dymi, near Patras, Greece August 14, 2025. REUTERS/Louiza Vradi

    These examples illustrate what is possible when resilience is treated as an investment priority rather than a recovery cost. But we must ensure funding for these measures is scaled before disaster strikes. Initiatives like the Global Wildfire Leadership Network (GWLN) are key, bringing together corporate decision-makers, investors, insurers, governments and Indigenous leaders to direct investment towards prevention and align finance, technology and stewardship to protect nature, safeguard communities and strengthen future economic stability. With a goal of doing more together than the sum of our parts, the network focuses on Forest Future Alliance GWLN Solutions Labs – where partners sign up with the intent to collaborate.

    Rewarding prevention

    Financial incentives must be created that reward prevention. This can be done by scaling public-private partnerships, supporting long-term landscape stewardship, investing in community capacity including Indigenous wisdom and technology. Ultimately, our terrestrial natural reserves are critical infrastructure that support resilient economies and thriving communities.

    One in three people are dependent on forest services, goods and economic opportunities for survival, so it’s in all our interests to protect what we have. Forests support cooling, water and food security – and are a very cost-effective way of removing carbon dioxide from the atmosphere, where done appropriately.

    UN chief warns climate crisis “in overdrive” as El Niño threatens to fuel the fire

    No sector can solve this challenge alone. The benefits of wildfire resilience are shared across communities, governments, insurers, investors, utilities and businesses. A single intervention can protect homes and livelihoods, reduce insurance claims, secure water supplies and lower future public costs. Because the benefits are shared, the solutions must be too. Coalitions of actors can take proven approaches further than any one individual or organisation could alone.

    As wildfires continue to burn at an unprecedented scale, the opportunity now is to roll out solutions, shift investment upstream and build a future where resilience, rather than recovery, becomes the foundation of thriving economies.

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    Climate Change

    Guest post: Why tough methane cuts are crucial for keeping warming ‘well-below’ 2C

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    Methane is a powerful greenhouse gas and the second-largest contributor to global warming after carbon dioxide (CO2).

    Methane traps heat in the atmosphere more efficiently than CO2, but has a significantly shorter lifespan, fading after just a few decades.

    Therefore, reducing emissions of methane – a gas primarily produced by agriculture, fossil fuels and waste management – is a powerful option for limiting global warming in the near-term.

    Yet climate strategies and models often only focus on CO2, or combine all greenhouse gases into one metric known as “CO2 equivalent”.

    The latter approach makes reducing methane emissions dependent on modelling choices and assumptions about the “equivalence” of methane and CO2.

    It hides the opportunities and challenges linked to methane’s high warming and short lifetime.

    In a new study, published in Communications Earth & Environment, we offer a different perspective that “decouples” CO2 and methane reduction and takes global warming limits as a starting point for determining the required level of methane cuts.

    We show that, even under the most ambitious existing national net-zero targets, an absence of methane reduction leads to peak warming that exceeds 1.85C above pre-industrial levels.

    The study highlights that, to limit peak warming to well-below 2C, net-zero CO2 targets must be complemented by stringent methane emissions cuts.

    CO2 equivalent

    How much methane corresponds to one tonne of CO2?

    The question is as difficult to answer as: ‘how much spaghetti equals a chicken?’ You could compare the two meals according to their calories, protein content or cost. Each metric can be convenient, but is only valid for that specific comparison – no amount of spaghetti is the same as a chicken.

    The same is true for the conversion of emissions of methane and other gases to CO2-equivalent emissions. It can be convenient, as it allows different gases to be compared or combined into a single number. This is why the metric is used in climate targets or evaluating the effectiveness of different mitigation options.

    But, because methane and CO2 have different atmospheric lifetimes and warming properties, any conversion is only valid for a chosen time horizon and a chosen baseline.

    Depending on the assumptions baked into calculations, methane mitigation can either appear as an immediate priority or framed as almost unnecessary.

    There are a number of metrics that scientists use to convert greenhouse gases – whether methane, hydrofluorocarbons or nitrous oxide – into CO2-equivalent emissions:

    • “GWP20” measures how much heat a greenhouse gas traps in the atmosphere over a 20-year period, relative to CO2. It emphasises urgent methane mitigation but has been criticised for its implicit discounting of future damages.
    • “GWP100” looks at a 100-year timeline. It gives more weight to long-term warming and is used in “integrated assessment models” (IAMs) used by scientists, national emission reporting to the UN and by the GHG Protocol used by companies.
    • GWP*” considers the rate of emissions, rather than warming over a fixed time horizon. Under GWP*, very limited methane reductions bring CO2-equivalent emissions to zero, meaning remaining methane emissions can be designated as causing “no additional warming”. (This interpretation remains controversial as it assumes the continuation of historical levels of warming.)

    IAMs are the tools used to generate future emissions scenarios. Because they combine CO2 and methane emissions, the impact of methane emission cuts alone is difficult to isolate in existing emission scenarios.

    IAM-generated scenarios also assume mitigation decisions driven by costs. Combinations of CO2 and methane emission pathways that are not purely cost-effective are, therefore, not represented, even though climate policy is messy and emission pathways are rarely cost-effective in the real world.

    Only a few countries – including Japan, Mexico and South Korea – specify methane mitigation targets.

    A different approach

    In our study, we separate CO2 and methane emissions and treat them as independent.

    Instead of choosing a conversion method, we suggest that states and organisations set a limit on peak global warming first, then, based on their existing net-zero targets, determine the minimum compatible methane reduction target.

    Companies and countries around the world have set net-zero targets focused on CO2, as well as those that include all greenhouse gases. As a result, our research looks at the necessary methane reductions for both types of goal. We consider scenarios where companies or countries deliver linear – in other words, steady – emissions reductions to reach net-zero.

    Using a simple climate model, we systematically combined methane and CO2 (or greenhouse gas) mitigation pathways starting in 2025 and calculated peak warming.

    The figure below shows how peak warming depends on both the year of reaching net-zero CO2 and the level of methane cuts.

    Peak global warming relative to 1850-1900 reached until 2100 (50% likelihood), for combinations of the year of global net-zero CO2 emissions (x-axis) and the change in global methane (CH4) emissions between 2020 and that year (y-axis), assuming linear trajectories. Black lines are contours of equal peak warming. The three bars on the right show independent estimates of where CH4 emissions could or would land on the same vertical scale: CH4 mitigation available at no net cost (IEA, red), the 2030 mitigation potential (Global methane status report, orange), and the current legislation scenario for 2050 (Global methane status report, purple). Adapted from Weber et al. (2026).

    The blue arrows in the figure show that to limit warming to 1.7C under a 2050 net-zero CO2 scenario, methane emissions would need to fall by at least 69% by 2050, relative to 2020.

    Our research also finds that, if an organisation or country’s 2050 net zero-target covers all greenhouse gases, its methane emissions would need to fall by 63% instead.

    However, under current policies, methane emissions are expected to increase by around 20% by 2050, relative to 2020. We find that this pathway would result in peak warming above 2C by 2050 – even if global CO2 emissions were to reach net-zero by that date (see purple bar on the right-hand side of the figure above).

    The figure also shows how, if methane emissions remained at 2020 levels and net-zero CO2 was delivered by 2040 or later, warming would exceed 1.85C. This level of warming is above what has been argued as consistent with the Paris Agreement’s “well-below” 2C limit.

    Conversely, cutting methane emissions by around one-third – in line with the Global Methane Pledge target for 2030 – could reduce peak warming by 0.15C, of which 0.05C could be delivered by interventions that come at no net cost. These are shown by the orange and red bars, respectively, on the figure above.

    The table below highlights the minimum compatible methane cuts for three different peak warming levels and net-zero CO2 or greenhouse-gas emission targets.

    Peak warming Year of net-zero CO2 emissions Year of net-zero greenhouse-gas emissions
    2050 2060 2100 2050 2060 2100
    1.7C -69% -63%
    1.8C -32% -56% -11% -47%
    2C +8% -8% -83% >50% +33% -78%

    Minimum methane emission reductions between 2020 and the year of net-zero emissions, consistent with peak warming of 1.7C, 1.8C, and 2.0C at 50% likelihood, assuming linear emission trajectories. For some net-zero targets and peak warming levels, there are no compatible methane mitigation targets (indicated by “–”).

    Remaining carbon budget

    The global carbon budget refers to the amount of cumulative CO2 emissions allowable while still meeting a particular global warming threshold.

    The 2021 climate science report from the Intergovernmental Panel on Climate Change (IPCC) and a 2023 Nature study estimated that, by 2025, the remaining carbon budget for holding warming to 2C would be around 1,000-1,150bn tonnes of CO2 (GtCO2).

    We find that these estimates are founded on the assumption of methane reductions of 27-35% by 2050, relative to a 2020 baseline. (A 2024 Communications Earth & Environment study reached similar conclusions.)

    Under the GWP* metric, where methane emissions are only cut to maintain “no additional warming”, the remaining carbon budget would be constrained. The best estimate of a 2C budget shrinks by around 30% to approximately 750GtCO2.

    Finally, if methane emissions are not cut at all in the future, our findings suggest that the remaining carbon budget for 1.7C of global warming has, in effect, already been exhausted.

    Our analysis shows how peak warming depends on both CO2 and methane reduction – and how methane-specific targets can help refine existing net-zero targets.

    Crucially, we show that complementing net-zero CO2 targets with stringent methane cuts is necessary to limit peak warming to well-below 2C.

    Weber, K. et al. (2026) Limiting warming by CO2 and methane mitigation in an expanded scenario space, Communications Earth & Environment, doi:10.1038/s43247-026-03832-1

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    Pacific Islands Forum leaders, Albanese must not lose focus on Pacific priorities of climate and ocean

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    KOROR, PALAU, Monday 31 August 2026 — As Pacific leaders gather for the 55th Pacific Islands Forum Leaders Meeting in Palau from today, Greenpeace Australia Pacific is urging Prime Minister Anthony Albanese to stand with Pacific family by keeping Pacific needs at the heart of negotiations, backing longstanding Pacific leadership, supporting Pacific energy sovereignty and ocean custodianship, and holding the line on 1.5°C.

    Against the backdrop of tense geopolitical turmoil, increasingly frequent and lethal extreme weather disasters, the threat of deep sea mining and an energy crisis driven by fossil fuel dependence, the Pacific Islands Forum Leaders Meeting (PIFLM) is a critical moment for Pacific nations to unite with Pacific needs central to regional dialogue.

    The climate crisis, security, the opportunities of renewable energy in the Pacific, ocean protection, and the shifting political landscape will be the focus of the Forum’s discussions.

    Speaking from Palau, Shiva Gounden, Head of Pacific at Greenpeace Australia Pacific, said:
    “The Pacific Islands Forum is the most important multilateral forum in our region, unifying the Pacific under increasingly turbulent global circumstances. We are urging Forum members, including Australia, to not lose focus of Pacific priorities of climate and oceans amid noise and external pressures at this year’s meeting.

    “It is very clear that the greatest security threat to our region is climate change and the only way we can address that is through a just transition away from fossil fuels. Regional cooperation is an antidote to climate chaos and geopolitical tension – together, our region can be guided by Pacific nations’ legacy of leadership from the frontlines of the climate crisis, as we build a more peaceful and secure world.

    “This year’s Forum will set the stage as we build momentum toward COP31 and a Fossil Fuel Free Pacific. Australia must back Pacific energy sovereignty as a solution to the compounding threats facing our region, including soaring costs of living and increasingly lethal extreme weather disasters, and resist the militarisation of our oceans, deep sea mining, and power politics.

    “We must not lose sight of what is needed. The regional adoption of Pacific-led solutions, a Pacific pre-COP with focus on advancing the just transition away from fossil fuels and community-targeted finance for strong and resilient futures beyond fossil fuels must be the foundations of this year’s Forum discussion. What we need now is stronger political will.”

    Also in Palau, Dr Simon Bradshaw, COP31 Lead and climate expert at Greenpeace Australia Pacific, said:
    “Prime Minister Albanese faces a major test of Australia’s climate credibility and Pacific partnership this week. We cannot be a friend to the Pacific and continue to expand fossil fuel production. The best way for Australia to remain the Pacific’s security partner of choice is to act faster on the Pacific’s number one security concern — climate change.

    “The Albanese Government has approved at least five new coal and gas projects since the last Pacific Islands Forum Leaders Meeting, and 36 since being elected, every one of which increases the threats to life, security and sovereignty facing Pacific communities.

    “Nowhere in the world are the dangers of fossil fuels or the benefits of renewable energy clearer than in the Pacific, which faces the double blow of climate disasters and expensive fuel imports.

    “Australia, as incoming President of Negotiations for COP31, has a responsibility to follow the Pacific’s lead, embrace the vision of a resilient Fossil Fuel Free Pacific, and do everything possible to keep 1.5°C alive. Doing so would establish Australia as a highly effective middle power, a force for good in troubled times, and a true ally and partner to the Pacific.”

    —ENDS—

    Greenpeace Australia Pacific has delegates from the Pacific and Australia at the PIFLM in Palau available for interview

    Pacific Islands Forum leaders, Albanese must not lose focus on Pacific priorities of climate and ocean

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