Inertia Enterprises, a fusion energy startup, has raised $450 million in a Series A funding round. The capital will help the company build the world’s most powerful laser and advance its fusion power technology.

The funding round was led by Bessemer Venture Partners. Other investors include GV (formerly Google Ventures), Modern Capital, Threshold Ventures, Long Journey Ventures, and others.

Inertia was founded in 2024. The company’s mission is to make fusion energy a practical and clean power source for the grid. It plans to use its new funds to build key parts of its fusion system and to scale components that are essential for commercial power plants.

Fusion energy has long been viewed as a potential source of abundant, clean power. Inertia’s recent funding round is one of the largest for any fusion startup. It reflects growing investor interest in bringing fusion out of the lab and into real-world use.

What Fusion Energy Is and How Inertia’s Approach Works

Fusion is the process that powers the sun. It happens when light elements such as hydrogen combine to form a heavier element. This process releases a large amount of energy. Fusion does not produce carbon emissions, and it generates much less long-lived radiation than fission nuclear power.

Inertia’s technology is based on a fusion method called inertial confinement fusion (ICF). ICF uses powerful lasers to compress tiny fuel pellets. When the pellets reach high temperature and pressure, fusion reactions occur.

The company plans to build a laser system called Thunderwall. This system is designed to deliver powerful beams at a rapid rate. The laser will fire repeated pulses into fuel targets, generating the conditions needed for fusion.

Inertia’s founders include leaders with experience in fusion science and large-scale research facilities. This includes scientists from the Lawrence Livermore National Laboratory’s National Ignition Facility (NIF). Their experiments showed fusion ignition, which produced more energy than they used on the target.

The company’s CEO and co-founder, Jeff Lawson, previously led Twilio, a technology company that grew into a major communications platform. He now leads Inertia’s effort to translate fusion science into clean energy technology. He said,

“Our plan is clear: build on proven science to develop the technology and supply chain required to deliver the world’s highest average power laser, the first fusion target assembly plant, and the first gigawatt, utility-scale fusion power plant to the grid. Inertia is building the team, partnerships, and capabilities to make this real within the next decade.”

Inside the $450M Bet on Commercial Fusion

The $450 million funding round is considered one of the largest for a fusion startup in its early phase. The money will support several major activities, including:

• Building Thunderwall, the powerful average-power laser system.
• Developing manufacturing lines for fusion fuel targets.
• Creating the first pilot plant and laying the groundwork for future commercial plants.
• Scaling supply chains for components like laser diodes and fuel pellets.

Investors say Inertia’s technology has the potential to reach commercial-scale fusion energy faster than other approaches. They cite the company’s focus on proven physics from earlier lab experiments.

Co-founder, Dr. Annie Kritcher, remarked,

“In just three years, we’ve gone from the first experiment to ever produce more fusion energy than was delivered to the target, to repeating that result many times and pushing the target gain higher. We’re now focused on translating physics we know works into a pathway toward commercial-scale fusion energy, and the real benefits it can deliver for people and the planet.”

From Lab Ignition to Grid Ambition: Inertia’s Fusion Roadmap

Inertia’s approach relies on key breakthroughs made at the NIF in Lawrence Livermore National Laboratory. In December 2022, researchers reported a major breakthrough. They conducted the first controlled fusion experiment that generated more energy than it received.

The NIF success provided proof of concept. It showed that inertial confinement fusion could technically produce net energy in a single experiment. Inertia’s team includes some of the scientists from that effort.

• Inertia’s long-term goal is to build a fusion power plant with 1.5 gigawatts (GW) of capacity. A plant of this size could supply electricity for about 1 million homes.

The next challenge is to make the fusion process repeatable and efficient enough to produce continuous power. Inertia plans to use advanced diode lasers. These lasers are expected to be about 10x more efficient than older technologies. The company believes this will significantly lower the cost of fusion energy production.

• RELATED: Google and Chevron Back TAE Technologies as It Nears Fusion Power Breakthrough

Fusion Joins the Clean Energy Investment Surge

Fusion energy investment has grown quickly in recent years. Both governments and private companies are putting large sums into the sector. It is now part of a broader clean energy funding trend that includes startups pursuing both fusion and fission technologies.

Private fusion funding has exploded over the past five years. Total investment reached $13.2 billion by the end of 2025. That amount is up 8x from 2020, when just 15 companies raised $400 million.

The US leads with 53% (~$7B) while China holds 34%. Active companies surged 400% from 15 to 77, reflecting broader investor diversification across ICF, tokamaks, and stellarators. Inertia’s $450M sits atop this record-breaking year.

Some other fusion startups that have attracted significant capital include:

• Commonwealth Fusion Systems, with roughly $2.86 billion raised to date.
• Helion Energy, with more than $1 billion in funding and commitments.
• Pacific Fusion, reported to have raised about $900 million.
• General Fusion, with about $357 million raised.

Private capital flows into fusion are increasing as the global demand for clean energy rises. Many countries are moving to reduce carbon emissions and to invest in technologies that can provide large amounts of clean power with minimal environmental impact.

In the United States, the Department of Energy (DOE) awarded $134 million for fusion research programs. These include the Fusion Innovative Research Engine (FIRE) and the INFUSE program. The DOE said it could invest up to $220 million over four years in the FIRE initiative. The goal is to link national labs, universities, and private firms to speed up fusion development.

The DOE has also partnered with companies such as Kyoto Fusioneering to test fusion fuel cycle systems at Oak Ridge National Laboratory. These efforts aim to prepare key technologies for future fusion plants.

Private capital is also rising, as shown in the chart.

Italian energy major Eni signed a more than $1 billion power purchase agreement (PPA) with Commonwealth Fusion Systems (CFS). The deal covers electricity from CFS’s planned 400-megawatt ARC fusion plant in Virginia. The plant is expected to connect to the grid in the early 2030s.

CFS has also signed a deal with Google for 200 megawatts of future fusion power. These agreements show that large energy buyers are planning for fusion in long-term clean energy strategies.

• READ MORE: Google Backs Fusion Energy: Signs 200MW Offtake Agreement with Commonwealth Fusion Systems

Governments and corporations now see fusion as a long-term clean energy option backed by serious funding and market commitments. That is because fusion energy does not emit carbon during power generation and uses fuel that is abundant in nature, such as isotopes of hydrogen. This makes it attractive as a long-term clean energy option alongside renewables such as wind and solar.

Could Fusion Become the Ultimate Baseload Power?

Inertia’s $450 million funding round is a landmark moment for the fusion industry. It shows that investors are willing to back ambitious clean energy technologies with long-term horizons.

Fusion has the potential to provide baseload clean power — power that is stable and available around the clock. This could complement intermittent renewables like solar and wind.

If commercial fusion is achieved, it could transform the global energy landscape. Countries could reduce dependence on fossil fuels. Power systems could become cleaner and more resilient.

However, fusion still needs major technological breakthroughs before it becomes a practical energy source. Inertia and other fusion companies are working to solve the remaining scientific, engineering, and supply chain challenges.

The next few years will be critical for measuring progress. Successful fusion commercialization could mark a turning point in the global effort to achieve deep decarbonization and sustainable energy systems.

• MUST READ: General Fusion’s Nasdaq Listing Pushes Fusion Energy Into the Market Spotlight

The post Fusion Breakthrough: Google Venture-Backed Inertia Raises $450M to Build World’s Most Powerful Clean Energy Laser appeared first on Carbon Credits.

France has approved a major new energy law that cuts back renewable energy targets and strengthens support for nuclear power. The law was passed by decree on 13 February 2026 after nearly three years of political debate.

The law is part of France’s Multiannual Energy Programming (PPE), a 10-year framework that guides energy policy through 2035. It sets long-term goals for how power is produced, with revised targets for wind, solar, and nuclear energy.

French Finance Minister Roland Lescure said the changes reflect slower electricity demand growth than expected and the government’s desire for a stable energy mix. He also said nuclear power remains the “backbone” of France’s electricity system, while adding:

“We need to stop ​our internal family ‌squabbling. We need both nuclear and renewables.”

The new law marks a significant shift in French energy policy. It alters renewable goals that were set to help cut emissions and diversify power sources.

Wind and Solar Ambitions Dialed Down

However, the new regulation lowers France’s wind and solar capacity goals for 2035. Previously, draft plans set higher targets for renewable capacity, but under the new law, the goals dropped.

• Wind and solar combined (draft): 133–163 GW by 2035.
• Wind and solar (new law): 105–135 GW installed capacity by 2035.

The law also adjusts specific sub-targets:

• Offshore wind: reduced to 15 GW by 2035 (from 18 GW).

The reduction aims to show slower growth in electricity demand. It also addresses challenges in permitting and grid integration in France and the wider EU.

France’s wind and solar power deployment has been slower than in some neighbouring countries. Recent energy plans show that renewables made up about 14.6% of France’s electricity mix. Wind and solar still lag behind nuclear and hydro power.

Critics say that while renewable energy is growing, the new targets might slow down carbon cuts. They worry it could also make investors less confident in wind and solar projects.

Nuclear Reasserted as the Backbone

France’s low-carbon electricity history centers on nuclear power. In the 1980s, nuclear output grew quickly as new reactors came online. Growth slowed in the 1990s and early 2000s and after 2009, production declined.

Output later recovered, with gains of more than 25 TWh in 2021 and over 40 TWh in 2023 and 2024. Nuclear remains central to France’s low-carbon power system, again.

The new energy law lets state-run utility Électricité de France (EDF) keep 14 nuclear reactors open. This requirement was part of earlier commitments and had been controversial.

Instead, the framework reinforces nuclear’s role in the energy mix. It also sets a goal for net production of 650–693 terawatt-hours (TWh) of decarbonized electricity by 2035, compared with about 540 TWh today.

EDF currently operates a fleet of 57 nuclear reactors, which supply roughly 65% of France’s electricity — one of the highest nuclear shares in the world. The law also foresees the construction of at least six new nuclear reactors, with the first expected to be inaugurated around 2038.

EDF welcomed the revision and said the law would help the company focus on its output goals and long-term planning.

Support for nuclear power reflects a broader policy shift. France has long relied on nuclear energy for low-carbon generation, and policymakers view it as vital for energy security and independence.

• RELATED: France Eyes Bitcoin Mining Powered by Surplus Nuclear Energy

Rebalancing the Power Mix for 2035

The new law reshapes France’s energy mix. It places greater emphasis on nuclear while easing pressure on the rollout of renewables.

The revised framework aims to balance supply security, carbon goals, and economic considerations. Slower electricity demand growth is one reason officials cited for the policy shift.

France is also planning to increase the share of electricity in overall energy consumption to 60% by 2030, up from around 30% today. This goal reflects efforts to electrify transport, buildings, and industry as part of broader decarbonization strategies.

However, renewable energy growth has not kept pace with previous plans. France has reduced its wind and solar capacity targets. Some projects are also facing delays due to regulations and grid issues.

Hydroelectric power is a key renewable source in France, but wind and solar are becoming more important. The country aims to cut fossil fuel use and meet EU renewable goals.

A Divisive Shift in the Energy Transition

The energy law triggered a heated debate among legislators. Some lawmakers criticised the reduction in renewables targets as a step backward for the energy transition.

Marine Le Pen, leader of the far-right National Rally party, urged lawmakers to submit a no-confidence motion in response to the law. She argued that lowered targets could harm French industry and agriculture.

Environmental groups also voiced concern. Greenpeace France stated:

“If this PPE is ​more than two years late on paper, it’s at least a decade behind in its vision of an energy transition.”

Industry groups, including wind and solar developers, had mixed reactions. Some welcomed the clarity provided by the law after years of uncertainty, while others cautioned that investment could slow without stronger renewable goals.

The debate reflects broader tensions in France between emissions reduction goals and economic and security considerations. The law tries to balance these priorities in the face of fiscal pressures and geopolitical uncertainties.

EDF at the Center of France’s Power Strategy

EDF plays a central role in France’s electricity system. The utility’s large nuclear fleet is critical for providing low-carbon base power. The company is also expanding its renewable business. It runs hydroelectric plants and is involved in wind and solar projects domestically and abroad.

However, abundant wind and solar power across Europe has pressured wholesale power prices, reducing revenue for nuclear plants that operate best at higher price levels. The new law seeks to ease some of this pressure by rebalancing targets and supporting nuclear output.

EDF is also working on modernising its fleet. In recent years, it secured financing to extend the life of its older reactors and to pursue small modular reactor (SMR) technologies for future deployment.

The utility’s path forward will involve managing a complex energy mix that includes nuclear, renewables, hydroelectric, and other clean sources. Meeting climate goals while ensuring reliable, affordable power remains a key challenge.

The Road to 2035: Implementation and Impact

France’s new energy law sets the course for the next decade. It guides energy planning through 2035 under the PPE framework.

The law aligns nuclear and renewable policy with expected demand and economic conditions. It seeks to stabilise the power market and support key utilities like EDF.

Energy markets, investors, and grid operators will be watching how capacity targets unfold and how demand patterns evolve. France’s approach may influence broader EU energy policy debates, especially around balancing nuclear with renewable goals in the transition to net zero.

• READ MORE: India and France Bet Big on Nuclear: SMRs and AI at the Forefront

The post France Shocks Energy Sector and Rewrites Energy Future: New Law Boosts Nuclear, Cuts Renewables appeared first on Carbon Credits.

ArcelorMittal will invest €1.3 billion (about $1.5 billion) to build a new electric arc furnace (EAF) at its steel site in Dunkirk, France. The company said the project marks a major step in cutting emissions from its French steel production.

The steelmaker announced the decision as French President Emmanuel Macron visited the Dunkirk site. ArcelorMittal said it now has more confidence to move forward because of recent policy and market changes in Europe and France. CEO Geert van Poelvoorde said,

“The decision to proceed with building an EAF in ArcelorMittal Dunkirk, to produce low-carbon emissions steel at scale for our customers, has been made possible because we now have the conditions in place to make this project a success…We will now focus on steering the Dunkirk EAF project to completion and commercial success.”

The EAF is scheduled to start up in 2029. It will have a capacity of 2 million tonnes of steel per year. 

A 2M-Tonne Shift Toward Scrap-Based Steel

Electric arc furnaces make steel mainly by melting scrap steel. They can also use low-carbon inputs like HBI/DRI (hot briquetted iron / direct reduced iron) mixed with hot metal. ArcelorMittal said its Dunkirk EAF will use a mix of scrap, HBI/DRI, and hot metal.

The company also gave a clear emissions estimate. It said the new EAF will emit about 0.6 tonne of CO₂ per tonne of steel and deliver three times less CO₂ than steel made in a blast furnace route.

This matters because steel is a hard sector to decarbonize. The industry produces significant CO₂e emissions, due to energy-intensive processes and heavy fossil fuel use. 

How Will France Support the Investment?

ArcelorMittal said part of the project will receive public support through Energy Efficiency Certificates (CEE). CEE is a regulatory mechanism in France that promotes energy savings and CO₂ reductions. The company said the support amount will represent 50% of the €1.3 billion investment.

The steelmaker also pointed to a key energy step in France. It said it recently signed a contract with EDF to secure a long-term supply of low-carbon, competitive electricity. The company described this as a major part of its energy strategy in France.

Electricity supply is critical for EAFs. The carbon benefit of an EAF depends heavily on how clean the grid is and how stable power prices are over time.

Why Did ArcelorMittal Invest in Bunkirk?

ArcelorMittal said three developments gave it confidence to confirm the Dunkirk investment.

• Import Controls

First, it cited new European Commission proposals to limit unfair imports through a Tariff Rate Quota (TRQ) mechanism. ArcelorMittal said this approach would limit import quantities and impose additional duties if imports exceed set limits.

• CBAM

Second, it pointed to proposed reforms to the EU’s Carbon Border Adjustment Mechanism (CBAM). ArcelorMittal said it expects these measures—if fully implemented—to restore “fair and competitive conditions” in the European steel market.

CBAM is the EU’s tool to apply a carbon price to certain carbon-intensive goods entering the EU. The European Commission says CBAM’s transitional phase runs from 2023 to 2025, and the definitive regime starts in 2026.

ArcelorMittal’s message was direct. It said it is important to implement the TRQ and adjust CBAM to close remaining loopholes as quickly as possible.

• EDF Deal

Third, it highlighted its EDF electricity deal as another factor supporting the project.

€500M Bet on Electrification Demand

ArcelorMittal also highlighted another major investment near Dunkirk. At its Mardyck plant, close to Dunkirk, the company said it is starting up a new electrical steel production unit this quarter.

It said the company invested €500 million in this facility. ArcelorMittal described it as its largest investment in Europe in the last 10 years, excluding decarbonization projects.

Electrical steel is used in electric motors and other electrification applications. ArcelorMittal said the new plant supports the electrification of industrial and automotive uses. This point matters for demand.

Steelmakers often need clearer long-term demand signals for low-carbon materials before committing large capital to new production routes. 

• SEE MORE: Steel’s Heavy Carbon Burden: Is ArcelorMittal Pulling Back on Its Net Zero Climate Pledge?

From Blast Furnaces to EAFs: ArcelorMittal’s Broader Decarbonization Program

ArcelorMittal says it remains committed to reaching net-zero emissions by 2050. The company set this as a group-wide goal in 2020.

In its latest sustainability update, ArcelorMittal’s absolute emissions for its 2024 operating perimeter are almost 50% lower than its 2018 operating perimeter. The steel manufacturer further said it has invested $1 billion in decarbonization projects over that period.

The company is also shifting more steel production to the electric arc furnace (EAF) route. EAF production accounted for about a quarter of its global steelmaking in 2024, up from 19% in 2018.

In Europe, ArcelorMittal is moving ahead with several EAF-led projects. It said it started construction of a 1.1 million-tonne EAF at its long products plant in Gijón, Spain, which it expects will cut emissions by 1 million tonnes of CO₂e. It is also increasing output at Sestao, Spain, to 1.6 million tonnes by 2026, using two EAFs.

ArcelorMittal markets its low-carbon products under the XCarb® brand. The company said it can deliver low-carbon steel with a footprint as low as 300 kg CO₂ per tonne of steel, and it expected XCarb sales to rise to around 400,000 tonnes in the year it reported.

More notably, the company already operates an industrial-scale carbon capture and utilization (CCU) facility at Ghent, Belgium, with two additional pilots underway at the same site. 

Carbon Pricing and Competitiveness Reshape Steel

Steel decarbonization requires major capital and new infrastructure. It also needs policy support that reduces carbon leakage risk and helps companies compete with lower-cost imports.

The EU’s CBAM design aims to put a fair carbon price on imports and reduce the incentive to shift production outside the EU. The Commission notes that CBAM is also aligned with the phase-out of free allowances under the EU ETS to support industrial decarbonization.

At the same time, the steel sector still needs faster progress on emissions cuts. The IEA notes that steel emissions and emissions intensity need to fall by about 25% by 2030—around 3% per year—to get on track for net zero by mid-century.

ArcelorMittal’s Dunkirk EAF fits this direction. It shifts part of production toward a lower-emissions process and signals confidence that market rules are moving toward stronger climate and competitiveness safeguards.

Execution Phase: Can Policy and Profit Align?

ArcelorMittal said it will now focus on delivering the Dunkirk EAF project through to completion and commercial success.

The company also said it will review the possibility of building further EAFs elsewhere in Europe, but it plans to take a cautious approach based on its “economic decarbonisation” strategy.

For France, the project adds to broader efforts to keep heavy industry competitive while cutting emissions. Meanwhile, it reflects a wider shift toward low-carbon industrial investment for Europe backed by border measures, market defenses, and energy contracts.

For customers, the key outcome is supply. A 2-million-tonne EAF could provide lower-carbon steel at scale, starting in 2029, if the project stays on schedule and the policy measures ArcelorMittal cited take effect as planned.

• READ MORE: Electra Raises $186 Million in Temasek-led Round to Advance Green Steel Production

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Equinor, long viewed as a global leader in carbon capture and storage (CCS), is slowing its near-term investment plans. The company said market conditions are not yet strong enough to support new large-scale CCS commitments, even though it has decades of technical expertise in the field.

As per reports, during its latest earnings call, CEO Anders Opedal acknowledged that CCS demand is developing more slowly than expected. As a result, Equinor will wait before approving new projects. The company remains willing to invest, but only when it sees clear customer demand, stable policy frameworks, and commercially viable contracts that can deliver solid returns.

In short, the technology is ready. The market signals are not.

Equinor Shifts Focus From Carbon Capture to Core Oil and Gas Returns

The reassessment is now visible in the company’s capital allocation plans. Equinor confirmed it will reduce capital expenditure by about $4 billion across 2026 and 2027 in its latest earnings report. Most of the reductions will affect its low-carbon solutions and power segment, which includes CCS, hydrogen, and ammonia.

At the same time, the company is sharpening its focus on profitability and cash flow. It plans to further develop the Norwegian Continental Shelf, pursue targeted growth in international oil and gas, and build an integrated power business.

• Equinor also aims to reduce operating costs by 10% in 2026 and deliver around 3% oil and gas production growth that year.
• For 2026 and 2027, it is targeting a return on average capital employed of roughly 13%.

However, the company’s financial performance has been solid. It reported 6% production growth in the fourth quarter and 3.4% growth for the full year. Portfolio “high-grading” and cost discipline remain central to its strategy. In this context, projects must compete for capital based on returns and risk. At present, large-scale CCS expansion does not yet meet those thresholds.

Low-Carbon Growth and Net-Zero Path

In its sustainability report, the company revealed that it has plans to keep investing in strong upstream projects while cutting emissions. It will prioritize existing infrastructure and factor carbon intensity into every portfolio decision. By producing cost-efficient barrels with lower emissions, Equinor aims to protect long-term value and maintain its license to operate responsibly.

At the same time, the company is investing in the energy transition. It is building renewable power, expanding low-carbon solutions, and applying its offshore engineering and subsurface expertise beyond oil and gas.

• It targets10–12 GW of installed renewable capacity by 2030 and aims for 30–50 million tonnes of CO₂ transport and storage capacity by 2035.
• It also plans to reach net zero across Scope 1, 2, and 3 emissions by 2050, with a 50% cut in operated emissions by 2030 from 2015 levels.

CCS remains central to these efforts. Equinor has safely stored millions of tonnes of CO₂ offshore Norway and continues developing transport networks connecting European industry to North Sea storage sites. Scaling CCS further will depend on stable policies, strong government support, and clear industrial demand.

Norway’s Storage Potential Remains Strong

Equinor has spent more than 20 years developing CCS capabilities and has participated in over 40 research projects. Norway’s offshore geology provides a natural advantage. The seabed beneath the North Sea is considered highly suitable for long-term CO₂ storage and could potentially hold the equivalent of 1,000 years of Norway’s emissions.

Technically, the country is well-positioned to serve as a major European CO₂ storage hub. However, geology alone does not guarantee investment. Storage capacity must match real and committed capture volumes. Without enough industrial CO₂ flows secured under contract, storage sites cannot operate at scale.

• RELATED: World’s First Commercial CCS Plant Owned by Shell, Equinor, and TotalEnergies Injects CO2 in North Sea

Carbon Capture and Storage: A Growing Market With Real Barriers

As per Fortune Business Insights, the global carbon capture and sequestration market is still projected to expand. In 2025, the market was valued at around $4.51 billion. It is expected to approach $20 billion by 2034, reflecting strong long-term growth projections. North America currently leads the sector, supported by government incentives and operational CCS facilities.

CCS technology captures carbon dioxide from industrial sources or power plants, transports it by pipeline or ship, and stores it deep underground in geological formations. Storage often takes place in saline aquifers or depleted oil and gas reservoirs. In some cases, CO₂ is used for enhanced oil recovery, increasing oil production while storing emissions underground.

Despite this momentum, the industry faces clear challenges. CCS infrastructure requires high upfront capital. Projects involve complex regulation, long development timelines, and cross-border coordination. Most importantly, they require dependable revenue streams backed by firm customer commitments.

Equinor’s decision reflects these economic realities.

Decarbonization Delays Weaken Near-Term CCS Demand

The company emphasized that one of the biggest challenges is changing customer timelines. Just a few years ago, many industrial buyers of natural gas were actively exploring hydrogen supply and CO₂ transport and storage services. Decarbonization plans appeared urgent.

Today, that urgency has softened. Many of those same customers continue to buy gas, but they have pushed major emissions reduction commitments further into the future. Instead of focusing on projects before 2030, companies are now extending targets beyond that date.

This shift has weakened near-term demand for CCS services. Large storage projects depend on aggregating significant volumes of captured CO₂ under long-term contracts. Without those volumes, it becomes difficult to justify multi-billion-dollar infrastructure investments.

Although regulatory frameworks for CO₂ transport and storage have improved, progress on capture facilities and permitting has slowed. Policies are advancing, but the pipeline of ready-to-build projects is not growing at the same pace. For CCS to work commercially, capture projects, transport networks, storage hubs, and long-term contracts must move forward together. Right now, those pieces are not fully aligned.

A Reality Check for the CCS Sector

Equinor’s cautious stance highlights a broader reality facing the carbon capture industry. CCS is widely seen as essential for decarbonizing hard-to-abate sectors such as cement, steel, and chemicals. Many global net-zero pathways depend on large-scale deployment before 2030.

Yet technical readiness is not enough. Projects require predictable carbon pricing, stable long-term policy support, and customers willing to sign binding agreements. Without those elements, even experienced developers will hesitate.

The slowdown does not signal the end of CCS. Market forecasts still point to significant expansion over the next decade. However, deployment may not move as quickly as earlier expectations suggested.

Equinor’s message is clear. Climate ambition must translate into commercial commitment. Until customer demand strengthens and revenue visibility improves, capital will remain cautious. And for now, it is choosing discipline over speed. The company stands ready to invest when the economics make sense. But it will not move forward on optimism alone.

• ALSO CHECK: Top 3 Carbon Capture Leaders to Drive the Net-Zero Race in 2026 

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