Tuesday, December 09, 2025

 Eiffel Closes €1.2 Billion Fund to Accelerate Europe’s Energy Transition



By Charles Kennedy - Dec 09, 2025


Eiffel Investment Group has completed fundraising for its latest energy-transition infrastructure debt vehicle, Eiffel Energy Transition III, hitting its €1.2 billion hard cap and surpassing an initial €1 billion target.

The new fund marks the largest vintage in Eiffel’s energy-transition program and underscores accelerating capital demand for renewable energy across Europe. The strategy provides short-term, flexible debt to renewable developers, bridging a financing gap between costly equity and slower-moving long-term project finance—an area where infrastructure investors see rising structural imbalance.

Nearly half of commitments came from institutions that backed Eiffel’s previous two funds, highlighting the program’s performance and investor confidence. More than 30 major French and international investors joined the round, many seeking exposure to stable, collateralized green-energy assets at a moment when Europe faces record financing needs to meet decarbonization and energy sovereignty goals.


Since launching its first fund in 2017, Eiffel has financed more than 5,000 renewable assets—solar, wind, biomass, biogas, hydro, cogeneration, and efficiency projects—equivalent to 15 GW of low-carbon capacity. The firm has supported over 100 developers across Europe, helping accelerate project deployment in markets where permitting and capital constraints often delay build-out. Recent financings include solar portfolios in Ireland and Germany with Power Capital Renewable Energy and Enerparc.

Eiffel Energy Transition III is expected to deploy roughly €3 billion over its eight-year life thanks to recycling of repaid capital. The firm reports a €1.5 billion pipeline and reviewed over €7 billion in opportunities across 2024–2025. More than half of upcoming financings involve repeat borrowers, reflecting long-term relationships and larger-scale project ambitions.

The company has also expanded its infrastructure investment team to more than 30 professionals, adding four senior hires in 2025 to manage the accelerated deployment pace and portfolio oversight.

By Charles Kennedy for Oilprice.com



Europe Fast-Tracks Industrial Electrification With €1B Auction

  • The EU has launched its first-ever industrial electrification auction, offering €1 billion in subsidies to replace fossil-fueled process heat with electric and renewable systems.

  • Electrification is pulling ahead of hydrogen and CCS, as heat pumps, electric boilers, and similar technologies can be installed quickly.

  • This auction marks a deeper shift in EU industrial policy.

The European Commission’s announcement of the first-ever EU-wide industrial electrification auction marks more than a new funding mechanism; it represents a philosophical shift in how Europe intends to decarbonize its industries, and a signal that, at least for now, electrons are pulling ahead of molecules in the energy transition race.

With a budget of €1 billion under the Innovation Fund, the pilot auction will subsidize the direct electrification of industrial process heat, one of the most stubborn and carbon-intensive parts of the industrial value chain. This is the world’s first auction of its kind, and its implications stretch far beyond factory walls.

Electrifying the hardest heat

Process heat is the silent giant of industrial emissions. It powers furnaces, reactors, dryers, and kilns in sectors ranging from steel and cement to chemicals, glass, and food production. It accounts for roughly one quarter of Europe’s industrial CO2 footprint, yet remains largely fossil-fueled.

The new auction directly targets that problem. Eligible technologies include industrial heat pumps, electric boilers, resistance and induction systems, plasma torches, as well as solar thermal and geothermal systems. In essence, it opens the door for any system that replaces fossil heat with clean electricity or direct renewable heat.

Projects will compete for a fixed premium subsidy per tonne of CO2 abated, paid for up to five years. This results-based model rewards measurable carbon reduction rather than theoretical potential, an important distinction. By tying payments to verified performance, the EU hopes to attract bankable projects and bridge the economic gap between conventional and electrified heat.

The auction is expected to open in December 2025, giving the industry a year to configure systems, partnerships, and monitoring plans. That may sound distant, but in industrial planning terms, it is the blink of an eye.

A test of scale and speed

The significance of this auction goes beyond the €1 billion headline. It signals that electrification has matured from an efficiency measure to a pillar of industrial decarbonization policy.

While Europe has spent years debating hydrogen backbones, carbon capture networks, and cross-border CO2 storage, electrification is quietly emerging as the fastest-moving front. The technologies exist, the supply chains are mostly domestic, and the emissions benefits are immediate.

Industrial heat pumps and electric boilers can be installed within existing plants, often with minimal permitting. They integrate naturally with renewables and with the grid, especially when paired with flexibility measures that shift demand away from peak hours. In a system increasingly constrained by intermittency, these grid-friendly industrial assets are valuable not only for emissions reduction but for balancing electricity supply and demand.

Related: French Major TotalEnergies Scales Up North Sea Operations

By contrast, molecule-based pathways such as hydrogen, synthetic fuels, or CCS remain hampered by high costs, infrastructure bottlenecks, and fragmented policy support. Hydrogen production still depends on expensive electrolysers and clean power availability. CCS requires transport and storage capacity that remains scarce and politically sensitive.

In short, electrons can move faster than molecules.

The economics of momentum

The economics reinforce this trend. Electrified heat is capital-intensive but relatively simple to finance once policy provides a predictable premium. The auction’s pay-per-ton model mimics the logic of the U.S. 45Q tax credit for carbon capture, reward verified abatement, de-risks investment, and lets the market find the most efficient projects.

Hydrogen and CCS, meanwhile, remain hostage to system-level costs. Producing, transporting, and storing molecules, whether hydrogen or CO2, demands massive, integrated infrastructure that no single project can justify alone. Without a guaranteed offtake market or a predictable price for avoided carbon, private investors stay cautious.

That difference in scalability may define the next decade of European decarbonization. Electrification can move incrementally, one boiler, one line, one plant at a time. Molecule-based systems need a whole ecosystem to move together.

Europe’s strategic rebalancing

The timing of this policy pivot is not accidental. High gas prices, volatile ETS costs, and tightening climate targets have forced policymakers to confront industrial exposure to fossil fuel volatility. By electrifying heat with locally sourced renewables, Europe strengthens both energy security and industrial competitiveness.

There is also a deeper strategic message. The electrification auction is a prototype for what the Commission calls the Industrial Decarbonisation Bank, a permanent facility to finance low-carbon industrial investment. If the pilot succeeds, it could expand into a much larger platform, channeling billions into technologies that reduce industrial CO2 at source.

In that sense, this is more than a funding call, it is a stress test for Europe’s ability to move from rhetoric to replication.

The coming divergence, electrons vs. molecules

This growing divergence between electron-based and molecule-based approaches reflects a broader philosophical split in Europe’s transition planning.

Hydrogen and CCS have long dominated headlines, political speeches, and national strategies. They are indispensable for deep decarbonization, no one doubts that, but their deployment remains slow, costly, and infrastructure-heavy. Electrification, on the other hand, advances quietly because it relies on existing systems.

In practice, a factory can replace a fossil boiler with an electric one far faster than it can install a CCS unit or switch to hydrogen combustion. The capital costs may be comparable, but the regulatory and infrastructure complexity is not. That simplicity could make electrification Europe’s bridge technology for the 2030s, cutting emissions now, while hydrogen and CCS catch up.

The danger, of course, is overcorrection. A Europe that bets everything on electrification could still hit limits, grid capacity, renewable intermittency, and high industrial electricity prices. The challenge will be to use auctions like this not as an endpoint, but as a learning mechanism to optimize system integration, combining the immediacy of electrification with the longer-term flexibility of low-carbon molecules.

A quiet revolution in industrial policy

For decades, industrial decarbonization was seen as a future problem. The Innovation Fund’s electrification auction brings it into the present tense. It rewards results, not roadmaps, and signals that Brussels is finally willing to spend serious money on proven solutions.

It also marks a new chapter in industrial policy, Europe is starting to back winners based on technological readiness, not political symmetry. Where hydrogen and CCS still depend on frameworks under construction, electrification now has a launchpad.

Whether this becomes a model for future auctions covering cooling, storage, or low-carbon feedstocks will depend on its success in attracting viable bids and delivering measurable CO2 reductions. But the direction of travel is clear, Europe wants to move from blueprints to building sites.

The transition’s next inflection point

In the end, the auction’s real importance lies in its symbolism. For years, Europe has talked about industrial decarbonization as a long-term challenge. This initiative says something different, the technologies are ready, the money is available, and the political case is undeniable.

Electrons may not solve everything, but they are solving something now. Molecules will follow, eventually. The race is no longer between technologies, but between time and temperature.

Europe’s first industrial electrification auction may not make headlines like hydrogen valleys or CCS hubs, but in terms of tangible progress, it might just prove the most consequential.

By Leon Stille for Oilprice.com


Carbon Tax Puts EU at Odds With Export Majors

  • The Carbon Border Adjustment Mechanism (CBAM) is a new EU tax on imports from countries with less strict emission standards, designed to create a "level playing field" for European industries hurt by the EU's strict green mandates.

  • Major exporters like India are already seeking alternative markets for goods such as steel, the production of which is incompatible with the EU’s low-emission requirements.

  • The effectiveness of CBAM is at risk due to issues in its implementation, specifically inconsistencies in the default emission values assigned to exporting nations, which some industry executives warn could allow high-emission imports to enter the EU with insufficient carbon costs.

On January 1 next year, a new tax will come into effect in the European Union. Dubbed the carbon border adjustment mechanism, the tax will be imposed on imports from non-EU countries with less strict emission reduction standards. Those countries are already speaking out against the tax—and the EU is about to face some unforeseen consequences.

Last week, Reuters reported that Indian steel exporters were looking for new markets to replace the European Union, which currently absorbs as much as two-thirds of Indian steel exports. India’s steel manufacturing is done in blast furnaces fueled with coal, which is incompatible with the European Union’s emission reduction plans. Steel mills could switch to electric arc furnaces from coal-fired blast furnaces. The electric version has a lower emissions footprint, but such a switch would take time and money—quite a bit of it. Europe itself makes steel in electric arc furnaces, and this is still rather expensive.

It was in response to European industries that the carbon border adjustment mechanism, or CBAM, was drafted in the first place. The EU’s strict emission reduction targets and the mandatory requirements that go with them were making European goods uncompetitive on international markets, hurting steelmakers, cement producers, carmakers, and all other industries, really. So, these industries spoke up and got this sort of a concession, which fits in perfectly with the European Union’s ambition to become a standard-setter in climate policies.

“If you want to create a level playing field, if you are asking this [green standards] from companies in Europe, then it also makes sense to ask it from companies from outside of Europe [which are selling into the EU],” the EU’s climate commissioner, Wopke Hoekstra, told the Financial Times this month. Indeed, it makes sense to have one standard for all. Unfortunately, enforcement may not be as easy as Mr. Hoekstra made it sound in his interview with the Financial Times.

“As people get used to it and it gets implemented, it will be less of a conversation,” Hoekstra claimed. That might be true for people in general, but for people running companies that depend on export revenues, things look a little bit differently. To comply with European standards in emission reduction, these specific people would need to spend a certain amount of money to transform their production process and make it more vulnerable to cost shocks because electric arc furnaces, as the name suggests, work with electricity rather than coal. This is arguably a big reason why European steelmakers are finding it difficult to compete: for each ton of carbon dioxide they emit, European industries have to pay some 80 euro, equal to over $93. Yet they do not really have a choice.

India, China, and other exporters to the European Union do have a choice. “Some of those making money out of [fossil fuels] are seeking to prolong that process. We have seen this quite explicitly,” Wopke Hoekstra told the FT. “Some of the petrostates are seeking to at least slow down rather than speed up [the energy transition].” Indeed, most countries that make good money out of export commodities that enjoy strong and stable demand have very little motivation to kill their cash cows, as it were, just to please the policymakers in Brussels. It appears that Brussels is aware of it—and of the fact that the European Union is heavily dependent on imports of essential goods.

Politico reported this month that while the CBAM was more or less done in terms of text, it still needed work in the emission measurement part. It was unclear as of yet how exactly the specific emissions of exporters to the EU from India, China, Saudi Arabia, and others “making money out of fossil fuels” were going to be measured. The publication said it had seen two documents on the emission measurement, one containing emission benchmarks and the other default value for the production of the goods that would be subject to the new tax from January. It also said there were signs of the EU circumventing its own rules to keep the imports flowing in.

Politico cited industrial executives as saying the default values for emissions for certain countries that export to the EU were set too low to be real, including some steel production in China that, according to these estimates, turned out to be lower-emission than steel production in the EU.

“Inconsistencies in the figures of default values and benchmarks would dilute the incentive for cleaner production processes and allow high-emission imports to enter the EU market with insufficient carbon costs,” an industry representative told Politico. “This could result in a CBAM that is not only significantly less effective but most likely counterproductive.”

One could, in fact, argue that the CBAM is counterproductive by definition because it seeks to make more products expensive for more people in pursuit of an elusive goal of arresting changes in global temperatures. Yet the EU is going ahead with it, although it will provide “additional flexibilities” in response to the United States’ unfavorable reaction to the new levy.

By Irina Slav for Oilprice.com


Labor Shortages Threaten to Derail Europe's Energy Security Pivot

  • The EU's goal to completely phase out Russian natural gas imports by 2027 is facing a major challenge due to a growing shortage of skilled labor needed to build the necessary alternative infrastructure.

  • The global energy sector is booming, with jobs up by over 5 million since 2019, but a survey of 700 companies found that more than half reported critical hiring bottlenecks for electricians, engineers, and grid technicians.

  • In addition to the workforce crisis, the IEA also warns that current electricity market designs are failing to send the right long-term investment signals and must be redesigned to value flexibility for a system dominated by renewables.

The European Union has drawn a line in the sand. By 2027, the bloc intends to phase out Russian natural gas imports completely. 

But as the policy ink dries in Brussels, a new challenge is emerging in the real economy…

We might not have enough hands to build the infrastructure that replaces it.

International Energy Agency (IEA) Executive Director Fatih Birol stood alongside European Commission President Ursula von der Leyen last week and called it the "end of an era."

But he also delivered a warning. 

The transition away from Russian energy is only as strong as the workforce available to execute it. And right now... that workforce is stretched to the breaking point.

The Golden Rule: Diversification

Following the invasion of Ukraine, the IEA responded with a 10-Point Plan to reduce reliance on Russian fuel. The results have been swift. Europe has moved toward firmer footing, diversifying suppliers and accelerating renewables.

Dr. Birol, speaking at the European Commission, laid out the new philosophy simply:

“In the energy world, overreliance can quickly turn into major geopolitical vulnerabilities. My number one golden rule for energy security is diversification.”

The deal is done. The timeline is set. But policy is just paper until it is built.

A Boom with a Bottleneck

The energy sector is growing. Fast.

According to the IEA’s newly released World Energy Employment 2025 report, the sector is a job-creation machine.

Global energy employment hit 76 million people in 2024. It is up by more than 5 million since 2019. Last year alone, energy jobs grew by 2.2%, a rate growing at twice the pace of the wider global economy.

The center of gravity is shifting, too.

  • The power sector has overtaken fuel supply as the industry's top employer.
  • Solar PV is the primary driver of growth.
  • Jobs in EV manufacturing and battery production surged by nearly 800,000.

At first glance, all seems well, but the report highlights a deepening shortage of skilled labor. Of the 700 energy-related companies surveyed, more than half reported critical hiring bottlenecks.

Europe is facing a paradox. It has the capital. It has the policy mandates. But it lacks the electricians, the engineers, and the grid technicians to deploy them on schedule.

These shortages threaten to slow the building of infrastructure, delay projects, and raise system costs exactly when Europe needs to move fastest.

Rewiring the Market's Operating System

As the grid transforms to accommodate wind, solar, and batteries, the market design—the economic logic that governs the grid—is struggling to keep up.

The IEA’s concurrent report, Electricity Market Design, finds a disconnect.

Short-term markets are working well; they are efficiently dispatching power hour-by-hour. But long-term markets? They are failing to send the right investment signals.

The old models weren't built for a system dominated by renewables. The report argues that we need to redesign these markets to value flexibility and attract long-term capital.

If we don't fix the market signals, the investment won't flow... no matter what the policymakers in Brussels say.

The Global Context

The pivot isn't happening in a vacuum. While Europe finalizes its divorce from Russian gas, the rest of the world is moving, too.

  • In Norway: Dr. Birol met with Prime Minister Jonas Gahr Støre to discuss Norway's role as a guarantor of energy security and a partner in clean cooking initiatives for Africa.
  • In Southeast Asia: 150 policymakers gathered in Vietnam for the IEA’s 22nd Energy Efficiency Policy Training Week, addressing rapidly growing demand in the region.

The Bottom Line

The 2027 phase-out deal is a massive geopolitical win for Europe. It signals resilience. But the hard work is just starting.

We have traded a geopolitical crisis for an industrial one. The race is no longer just about securing gas contracts; it is about securing the talent and the market structures to keep the lights on.

Europe has cut the cord. Now, it has to build the battery.

By Michael Kern for Oilprice.com 





Landmark Deal Gives North America Its First Heavy Rare Earth Refinery

In partnership with the Saskatchewan Research Council (SRC)

REAlloys, which is in the process of merging with Blackboxstocks Inc. (NASDAQ: BLBX), has moved to the front of the rare earth sector with a new agreement that gives it control over the lion’s share of North America’s upcoming heavy rare earth production.

Its partnership with the Saskatchewan Research Council (SRC) brings commercial volumes of dysprosium, terbium, and high-purity NdPr into the region for the first time, directly targeting the largest bottleneck in Western magnet manufacturing.

Reuters described the transaction as a “rare earths tie-up with strategic implications for the North American supply chain” because policymakers have their eyes glued to this space in light of 2027 procurement rules.

As new U.S. sourcing laws tighten, REAlloys now holds the supply position that downstream defense and advanced-manufacturing buyers will depend on, the Globe & Mail heralding the SRC facility as “North America’s first vertically integrated rare-earth processing complex–capable of separation and smelting at commercial scale”.

This is the segment of the supply chain the United States has been trying to rebuild for nearly two decades.

Heavy rare earths are the performance elements. They dictate whether a magnet can withstand heat, acceleration, and EMI without losing stability. These are all capabilities that extend far beyond defense. They are central to electric-vehicle motors, high-efficiency industrial equipment, medical imaging, renewable-energy generation, satellites, aerospace controls, and precision manufacturing. In short, they sit at the core of technologies that underpin both modern economies and military readiness.

And until now, North America has had no commercial-scale ability to refine them.

A Midstream Capability the Region Has Never Had

SRC’s facility in Saskatoon is North America’s first rare-earth complex designed to integrate monazite processing, separation, and metal production at a commercial scale. That’s a capability the region has lacked for decades.

The new agreement with REAlloys accelerates that evolution by adding a full heavy rare earth line, transforming the site from an advanced separation plant into the continent’s only integrated source of dysprosium, terbium, and high-purity NdPr metals.

Under the partnership, REAlloys will invest approximately $21 million to expand SRC’s refining capacity, increasing heavy rare earth throughput by roughly 300% and boosting NdPr metal output by about 50%.

When the upgraded system enters production in early 2027, SRC expects to deliver 30 tonnes of dysprosium oxide, 15 tonnes of terbium oxide, and 400-600 tonnes of high-purity NdPr metal annually.

REAlloys has secured 80% of this expanded output under a long-term offtake arrangement, a position that gives the company the dominant share of the first commercial heavy rare earth production run in North America.

According to the announcement, the redesigned system will also include “AI-driven separation and smelting infrastructure,” enabling SRC to move directly into metal production rather than stopping at oxide, a step most Western facilities historically have been unable to achieve.

This changes where REAlloys sits in the market. It is no longer a magnet manufacturer with upstream ambitions. Instead, it’s the principal customer of the only heavy rare earth refining platform in the region, and one of the few companies globally positioned to supply high-performance magnet metals into compliant supply chains.

The timing is highly strategic.

Beginning January 1, 2027, the U.S. Department of Defense will be barred from sourcing rare earth metals, magnets, and components from China, Russia, Iran, or North Korea. Federal buyers will shift procurement to domestic or allied suppliers. And for heavy rare earth metals, SRC’s upgraded facility–with REAlloys as its primary offtake partner–will be the only operation ready to meet that requirement at commercial scale.

Integrating the Chain From Source to Magnet

This agreement fits into a larger structure REAlloys has been putting in place across the rare-earth chain.

At the upstream level, the company anchors its plans in Hoidas Lake in Saskatchewan, a deposit with roughly 2.15 million tonnes of measured and indicated TREO and one of Canada’s most significant rare-earth resources. It gives REAlloys a defined long-term feedstock, supported by additional allied and recycled material sources that broaden the supply base.

The midstream is defined by the Saskatchewan Research Council’s separation and metal-making operation, now being expanded with AI-driven separation and smelting systems to create North America’s first commercial-scale heavy rare earth production line. Under the new agreement, REAlloys becomes the primary offtake partner for this upgraded capacity, securing 80% of the heavy rare earth output and effectively linking its upstream resource base to a domestic refining platform capable of producing dysprosium, terbium, and high-purity NdPr metals at meaningful scale.

Downstream, the Euclid Magnet Facility in Ohio forms the final step in the chain. Established in 2013 to serve U.S. Department of Defense and Department of Energy customers, the facility produces advanced alloys and magnet materials, holds SBIR status that permits sole-source federal procurement, and has earned multiple R&D 100 awards and associated materials-science distinctions. Together, these assets give REAlloys something Western operators have struggled to assemble: a vertically aligned system that spans ore, metals, alloys, and magnets inside a single continental corridor.

Adding to this structure is a clear signal from Washington.

The U.S. Export-Import Bank issued a $200 million Letter of Interest in support of REAlloys’ integrated mine-to-magnet strategy, underscoring federal recognition of the need for a domestic magnet industry as procurement rules tighten.

Piece by piece, the company has begun to build the architecture of a supply chain that has been missing from North America for decades and is now central to reindustrialization efforts on both sides of the border.

A Shift in Market Dynamics

Demand for high-performance magnets continues to accelerate across defense, electric mobility, automation, satellites, and clean energy. Still, the bottleneck has always been the same. Even when Western miners produced rare earth concentrate, they still depended on China for metal-making and heavy rare earth preparation.

That pressure point is now tightening under new procurement rules. Beginning January 1, 2027, the U.S. Department of Defense will be barred from sourcing rare earth metals, magnets, and components from China, Russia, Iran, or North Korea.

This shift forces federal buyers to transition toward domestic or allied supply. Most manufacturers are not ready for that deadline.

REAlloys, through its partnership with SRC, is now one of the only groups positioned to supply dysprosium, terbium, and NdPr metals at the volumes required by the U.S. and Canadian industrial base.

Heavy rare earths remain the least substitutable inputs in magnet production. They determine stability under heat, acceleration, magnetic load, and environmental stress–all the things that define missile guidance accuracy, aircraft efficiency, EV motor durability, satellite maneuvering, and industrial automation reliability. For nearly 15 years, every Western supply chain assessment has identified heavy rare earths as the system’s most acute vulnerability.

With this agreement, that vulnerability lessens. REAlloys and SRC are establishing the first commercially scaled heavy rare earth production line in North America, and for the first time, a significant portion of that output is contracted directly to a domestic magnet producer.

Execution Will Define the Next Step

North America’s rare earth problem has never been about geology. It has always been the absence of a functioning midstream, the refining and metal-making steps that turn mined material into usable inputs. This gap has forced the United States and Canada to depend on offshore supply even when domestic or allied resources were available.

Heavy rare earths have been the hardest of all to source, leaving defense, aerospace, and advanced manufacturing exposed to single-country dependence for the materials that determine thermal stability, precision, and performance.

SRC’s expansion arrives as North America finally confronts the part of the rare earth chain it never built: the part rare earths are converted into usable critical materials. Beginning in 2027, U.S. defense buyers must shift away from Chinese supply, but the region has had no commercial-scale source of dysprosium, terbium, or NdPr metals, prompting Reuters to note that the SRC upgrade is the first step toward filling that gap.

The REAlloys agreement doesn’t close the loop, but it does create the first steady flow of heavy rare earth metals inside the U.S.-Canada system. For defense, auto manufacturing, and advanced industrial applications, it marks a shift from theoretical supply to material that can be contracted, scheduled, and built into production plans.

What happens next depends on execution. If SRC delivers its upgraded capacity on schedule and if downstream buyers adapt to the new procurement landscape, 2027 could mark the first time North America has had a functional heavy rare earth channel of its own. It would not eliminate vulnerability, but it would begin to narrow the exposure that has shaped every rare earth strategy discussion since the early 2000s.

Other companies to watch in the resources sector:

Vale S.A. (NYSE: VALE)

Vale S.A. continues to aggressively decouple its base metals operations from its traditional iron ore business to capture higher valuations in the green energy market. The Brazilian mining giant has formally structured Vale Base Metals as a distinct entity tasked with managing its vast nickel and copper assets in Canada, Brazil and Indonesia. This strategic separation allows the unit to operate with the agility of a growth-focused company while leveraging the massive capital resources of its parent.

Vale is currently executing a $25 billion to $30 billion capital investment program aimed at increasing its copper production to 900,000 metric tons per year and its nickel output to 300,000 metric tons per year by 2030. The company’s operations in Sudbury, Ontario, and Voisey’s Bay in Labrador remain the linchpins of this strategy, providing low-carbon nickel rounds and pellets that Western automakers prioritize for their compliance with inflation-reduction incentives and ESG mandates.

Beyond simple extraction, Vale has deepened its downstream integration to secure its role as a direct supplier to the battery supply chain. The company is advancing joint ventures in Indonesia to process laterite nickel ore using high-pressure acid leaching technology, a method essential for producing the mixed hydroxide precipitate required for battery cathodes. Simultaneously, Vale has solidified long-term supply agreements with major automotive partners, including General Motors and Tesla, ensuring that a significant percentage of its high-grade Class 1 nickel is allocated directly to North American and European electric vehicle production.

Energy Fuels Inc. (NYSE American: UUUU)

Energy Fuels Inc. has successfully transitioned from a pure-play uranium miner into a diversified critical minerals processor, leveraging its White Mesa Mill in Utah to bridge a critical gap in the U.S. supply chain. As of late 2025, the company is processing commercial volumes of monazite sands—a radioactive byproduct of heavy mineral sand operations—to recover both uranium and rare earth elements.

The White Mesa Mill is the only facility in the United States with the existing licenses and tailings capacity to handle the radionuclides associated with monazite, giving Energy Fuels a distinct regulatory advantage. The company has moved beyond producing a mixed rare earth carbonate and is now operating Phase 1 separation circuits to produce commercial quantities of separated neodymium and praseodymium oxides. This operational shift effectively bypasses the historical necessity of shipping American feedstocks to China for separation, creating a nascent but vital domestic pathway for magnet materials.

To secure sufficient feedstock for this expansion, Energy Fuels has aggressively acquired heavy mineral sand projects in the Southern Hemisphere, including the acquisition of Base Resources and its Toliara Project in Madagascar, as well as the Bahia Project in Brazil. These acquisitions provide the company with a vertically integrated supply of monazite, insulating it from spot market volatility. The company is utilizing its "crack and leach" capacity to extract the rare earths while simultaneously recovering uranium for the nuclear fuel market, creating a dual-revenue model that lowers the effective cost of production for both commodities.

MP Materials Corp. (NYSE: MP)

MP Materials Corp. has completed its multi-year strategy to restore the full rare earth magnet supply chain to the United States. While the company continues to maximize output at its Mountain Pass mine in California, its strategic focus has shifted heavily toward midstream and downstream manufacturing.

In 2025, MP Materials ramped up commercial production at its magnet manufacturing facility in Fort Worth, Texas. This facility is now actively producing finished neodymium-iron-boron magnets, sourcing the metal alloy directly from the company’s own separated oxides. This vertical integration allows MP Materials to control every step of the process, from the open pit in California to the finished component in Texas, effectively insulating its customers from the geopolitical risks associated with the Chinese supply chain. The Fort Worth plant is designed to produce approximately 1,000 tonnes of finished magnets annually in its initial phase, with plans to scale significantly to meet demand from General Motors and other automotive partners.

MP Materials has secured substantial backing from the Department of Defense to refine heavy rare earths as well, acknowledging that a complete magnet supply chain requires dysprosium and terbium. The company is currently fulfilling a contract to supply rare earth materials to the Pentagon, underscoring the dual-use nature of its products. By successfully closing the loop between mining and manufacturing, MP Materials has established itself not just as a mining firm, but as the foundational industrial anchor for the American electrification and defense sectors.

Critical Metals Corp. (NASDAQ: CRML)

Critical Metals Corp. is advancing its "trans-Atlantic" strategy to supply strategic materials to Western markets through its flagship assets in Austria and Greenland. The company’s Wolfsberg Lithium Project in Carinthia, Austria, has moved through the definitive feasibility stage and is positioning itself as the first fully permitted lithium mine in Europe.

Located roughly 170 miles from major battery manufacturing hubs, Wolfsberg offers a logistical advantage that reduces transportation emissions and aligns with the European Union’s Critical Raw Materials Act. The project is designed as an underground mine to minimize surface disruption, a key factor in securing local community support and regulatory approval in an environmentally sensitive region. Critical Metals has signed binding offtake agreements with top-tier partners like BMW, ensuring that the lithium hydroxide produced at Wolfsberg has a guaranteed route to market as soon as commercial production begins.

In parallel, the company is developing the Tanbreez Rare Earth Project in Greenland, which hosts one of the largest known deposits of heavy rare earth elements and zirconium in the world. The Tanbreez asset differs from many competitors because its mineralization is hosted in kakortokite rather than carbonatite, which allows for different processing metrics and a potentially lower acid consumption profile.

USA Rare Earth, Inc. (NASDAQ: USAR)

USA Rare Earth, Inc. is executing a strategy centered on the revitalization of the American magnet manufacturing sector, anchored by its new facility in Stillwater, Oklahoma. Unlike peers that focus primarily on extraction, USA Rare Earth prioritizes the downstream production of sintered neo magnets, the highest-performance category of permanent magnets used in electric vehicle traction motors and defense systems.

The Stillwater plant has commenced initial qualification runs, utilizing equipment and intellectual property acquired from former Hitachi Metals facilities in North Carolina. This approach has allowed the company to leapfrog the typical research and development timeline, deploying proven commercial-scale technology to meet immediate demand. The company aims to scale production to meet a substantial portion of the U.S. defense industry's annual requirement, reducing the Pentagon's exposure to foreign supply shocks.

To support this manufacturing capacity, USA Rare Earth is developing the Round Top Heavy Rare Earth and Critical Minerals Project in West Texas. Round Top is a unique geological deposit containing a wide suite of magnetic rare earths alongside lithium, beryllium and gallium. The company is piloting a continuous ion exchange processing method to efficiently separate these materials from the rhyolite host rock. While the mine development continues, the company has secured intermediate feedstock supplies to ensure the Oklahoma plant can operate independently of the mine’s timeline.

Lynas Rare Earths Ltd. (OTC: LYSDY)

Lynas Rare Earths Ltd. remains the most significant producer of separated rare earth materials outside the People’s Republic of China, providing the global market with a proven non-Chinese supply of NdPr oxide. The Australian firm has substantially reconfigured its industrial footprint to mitigate regulatory risks and expand capacity.

The company’s new cracking and leaching facility in Kalgoorlie, Western Australia, is now fully operational. This plant processes the lanthanide concentrate from the Mt Weld mine locally, removing radioactive waste material before shipping a mixed rare earth carbonate to Malaysia for final separation. This operational change was necessitated by tightened environmental regulations in Malaysia but has ultimately strengthened the company’s supply chain by retaining the most hazardous waste handling within the mining jurisdiction of Australia.

Simultaneously, Lynas is constructing a heavy rare earth separation facility in Seadrift, Texas, a project partially funded by the U.S. Department of Defense. This facility is designed to process heavy rare earth feedstock to produce separated dysprosium and terbium, materials that are currently sourced almost exclusively from China.

General Motors Company (NYSE: GM)

General Motors Company has fundamentally altered its procurement strategy to become an active participant in the mining sector, recognizing that raw material availability is the primary bottleneck for its "Ultium" electric vehicle platform. The automaker is investing directly in resource development to secure the lithium, nickel, cobalt and manganese required for its battery cells. GM’s $650 million equity investment in Lithium Americas Corp. has facilitated the development of the Thacker Pass mine in Nevada, the largest known lithium source in the United States. This deal grants GM exclusive access to the Phase 1 production from Thacker Pass, ensuring a domestic supply of lithium carbonate that enables its vehicles to qualify for full consumer tax credits under the Inflation Reduction Act.

Beyond lithium, GM has forged a web of direct supply agreements for other battery metals, bypassing traditional intermediaries. The company has multi-year contracts with Glencore for cobalt and with Vale for low-carbon nickel sulfate from Canada. GM is also constructing a localized cathode active material supply chain through a joint venture with POSCO Chemical in Quebec, which will process materials sourced from GM’s mining partners. The automaker is heavily investing in a closed-loop battery recycling ecosystem through its collaboration with Li-Cycle, aiming to recover up to 95 percent of the critical minerals from end-of-life batteries and manufacturing scrap.

Southern Copper Corporation (NYSE: SCCO)

Southern Copper Corporation is leveraging its position as the holder of the world’s largest copper reserves to meet the structural supply deficit projected for the late 2020s. The company operates open-pit mines in Peru and Mexico that are among the lowest-cost producers in the industry, allowing it to generate robust cash flows even during periods of price volatility.

A major development for the company is the advancement of the Tía María project in the Arequipa region of Peru. After more than a decade of social and political delays, the company has commenced construction on the $1.4 billion greenfield mine. Tía María is expected to produce 120,000 tons of copper cathodes annually using solvent extraction and electrowinning technology, which eliminates the need for a smelter and reduces the environmental footprint. The successful activation of this project signals a significant improvement in the company’s ability to navigate complex community relations in Peru.

In Mexico, Southern Copper is investing heavily to expand its Buenavista Zinc and Pilares projects, aiming to increase its total production capacity to over 1.2 million tons of copper per year. The company is also advancing the massive Michiquillay project in Cajamarca, Peru, a world-class deposit that is currently in the exploration and social baseline study phase. Southern Copper’s strategy focuses on organic growth through the development of its own extensive concession portfolio rather than through expensive acquisitions.

Piedmont Lithium Inc. (NASDAQ: PLL)

Piedmont Lithium Inc. is establishing itself as a multi-jurisdictional supplier of lithium hydroxide, balancing near-term revenue generation with long-term domestic development. The company’s Carolina Lithium project in Gaston County, North Carolina, has received its state mining permit, a crucial regulatory victory that clears the path for construction. This fully integrated project is designed to mine spodumene ore and convert it into battery-grade lithium hydroxide on the same site, minimizing logistics costs and carbon emissions.

However, recognizing the time required to build such a facility, Piedmont has executed a strategy to secure lithium units earlier through international partnerships. The company holds a supply agreement and equity interest in Sayona Mining’s Quebec operations, where production is already underway at the North American Lithium complex. This partnership allows Piedmont to sell commercial shipments of spodumene concentrate to the global market while its U.S. assets are developed.

Piedmont is also advancing the Ewoyaa Lithium Project in Ghana in partnership with Atlantic Lithium. The company is funding the development of this asset in exchange for a 50 percent interest in the project’s production. The Ewoyaa material is intended to serve as a primary feedstock for Piedmont’s proposed conversion facility in Tennessee, known as Tennessee Lithium. This merchant plant aims to process foreign concentrate into domestic lithium hydroxide, further expanding the U.S. refining base.

Nouveau Monde Graphite Inc. (NYSE: NMG)

Nouveau Monde Graphite Inc. is nearing the completion of its "ore-to-anode" business model, aimed at providing a carbon-neutral alternative to Chinese synthetic and natural graphite. The company is constructing the Matawinie Mine in Saint-Michel-des-Saints, Quebec, which is notable for being the world’s first open-pit mine designed to operate with an all-electric fleet of mining equipment. This electrification strategy allows the company to produce graphite concentrate with a significantly lower carbon footprint than competitors. The extracted material will be transported to the company’s advanced manufacturing plant in Bécancour, Quebec, a dedicated battery materials industrial park. Here, the concentrate will be shaped and purified to produce the coated spherical graphite required for lithium-ion battery anodes.

The company has solidified its commercial viability through multi-year offtake agreements with anchor customers General Motors and Panasonic Energy. These contracts cover the vast majority of the company’s projected Phase 1 production, providing the revenue certainty needed to secure project financing. Nouveau Monde has also attracted strategic capital investments from Mitsui & Co. and Pallinghurst Resources, partners that bring both financial strength and logistical expertise.

Perpetua Resources Corp. (NASDAQ: PPTA)

Perpetua Resources Corp. has achieved a historic regulatory milestone for its Stibnite Gold Project in central Idaho, securing a Final Record of Decision from the U.S. Forest Service. This approval authorizes the company to proceed with the restoration and redevelopment of the brownfield site, which was abandoned by previous operators decades ago. The project is unique in that it contains one of the largest economic reserves of antimony not controlled by China.

Antimony is a federally designated critical mineral essential for the production of munitions, specifically as a hardening agent for lead in bullets and in the primers of small-caliber ammunition. It is also increasingly vital for large-scale liquid metal batteries used in grid energy storage.

Recognizing the national security implications of the project, the U.S. Department of Defense has awarded Perpetua Resources nearly $75 million in funding through the Defense Production Act and other initiatives to accelerate the project's development. This government backing effectively de-risks the permitting and construction timeline, validating the project's strategic necessity.

Perpetua’s plan involves reprocessing historical tailings to recover gold and antimony while simultaneously repairing the environmental damage left by World War II-era mining, including the restoration of fish passage for native salmon populations.

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Battery electric trucks hit Pilbara in joint BHP, Rio Tinto test


Cat 793 XE Early Learner battery-electric haul trucks at the Jimblebar mine. (Image courtesy of BHP.)

BHP (ASX: BHP) and Rio Tinto (ASX, LON: RIO) have begun testing two battery electric haul trucks at BHP’s Jimblebar iron ore mine in Australia’s Pilbara region  as the miners look for ways to curb diesel use and cut emissions.

The units, supplied through a partnership with Caterpillar (NYSE: CAT), mark the first phase of a joint trial meant to gauge whether battery technology can support large-scale iron ore operations. 

Each miner will decide on next steps after the joint testing period, including whether to move toward broader trials or fleet integration.

BHP said the work aims to confirm the performance of battery systems, charging infrastructure and supporting supply chains.

“Replacing diesel isn’t just about changing energy sources, it’s about reimagining how we operate and creating the technologies, infrastructure and supply chains to transform mining operations,” BHP’s Western Australia iron ore president Tim Day said.

Day added these trials will help the companies understand how “all the pieces of the puzzle fit together.”

Net zero by 2050

Rio Tinto iron ore Pilbara Mines MD Andrew Wilson said decarbonizing the company’s truck fleet across 18 mines remains a major challenge.

“By exploring solutions like this to reduce emissions, we hope that, over time, we will be able to move away from diesel,” he said, noting that “no single company can achieve zero emissions haulage on its own.”

Caterpillar senior vice president Marc Cameron said the collaboration was key to “accelerating innovation and shaping the next generation of mining technology.”

The companies said the effort supports their shared ambition to reach net zero operational emissions by 2050.


Vale to boost autonomous truck fleet in deal with Caterpillar

Autonomous truck in Brucutu mine, Minas Gerais. (Photo: Gustavo Andrade | Vale.)

Brazilian miner Vale has signed an agreement with Caterpillar and Sotreq to quintuple its autonomous off-road truck fleet by 2028 at its Northern System area, executive vice president of operations Carlos Medeiros told Reuters.

“This contract is another step toward a larger plan we have, which is the adoption of these trucks on a large scale,” Medeiros said.

Vale’s fleet would reach 90 units, up from 18 at the end of this year, according to Medeiros.

The initiative will reduce emissions, improve safety and boost productivity at Vale’s Northern System, its largest iron ore- and copper-producing area, he said.

The bulk of the expansion will come from converting conventional vehicles already in use.

Large-scale adoption

Vale operates some 130-140 off-road trucks in the Northern System, including both autonomous and conventional vehicles.

Autonomous trucks in operation carry up to 320 metric tons, but the fresh deal includes 400-ton models.

Financial details were not disclosed, but Vale’s total investment in autonomous trucks reached about $210 million through 2024.

Vale’s autonomous truck program began in 2018 at the Brucutu mine in Minas Gerais, a state where it also plans to expand its fleet.

(By Marta Nogueira and Gabriel Araujo; Editing by Tomasz Janowski)