Monday, July 27, 2026

 

EU Backs Off Methane Rules as Energy Security Fears Mount

  • The European Commission has advised EU countries to suspend methane-law penalties for three years to help protect energy supplies.

  • The recommendation follows pressure from the United States, Qatar, industry groups, and many EU member states concerned about gas availability.

  • Environmental groups warn that delaying enforcement could weaken one of the world's most ambitious methane reduction policies.

The European Commission (EC) has informed EU governments that they should waive penalties for oil and gas companies that breach its methane emissions law for the next three years, owing to pressure from the United States government to scrap the rules. While the decision is not binding, many member states are expected to follow the EC’s advice.

The EC made the move after the U.S. and ‌Qatar, as well as oil and gas industry groups and most EU member states, voiced concerns about the strict rules and demanded change. Several states feared that Europe would not be able to secure fuel supplies once the rules came into place in January 2027 if energy companies could not provide gas imports that met the EU’s strict emissions rules.

The EC announced that the changes were justified “in a context of global energy markets tightness caused by the ongoing blockade of the Strait of Hormuz”. The Strait has been almost completely closed since February, following the U.S.-Israeli-led war on Iran. The trade corridor, located between Oman and Iran, connects the Persian Gulf with the Gulf of Oman and the Arabian Sea. It transports an average of around 20 per cent of the global petroleum liquids and gas supply when fully operational.

The EU climate policy, a world first, was adopted in 2024 to crack down on methane leaks in a bid to tackle climate change. It established the first EU framework for measuring, reporting, and verifying methane emissions in the energy sector. However, the EC said in a statement that while methane is the second-greatest contributor to climate change, “geopolitical developments in the Middle East are re-shaping the global energy system”.

Methane heats the planet up to 80 times more than carbon dioxide over two decades. Methane has contributed roughly 30 per cent of the increase in global temperatures since the Industrial Revolution, and the energy sector contributes over 35 per cent of the methane emissions from human activity. Despite the launch of the Global Methane Pledge at the COP26 climate summit in 2021, many countries are falling behind on their methane targets.

The delay in the rule’s implementation is expected to help the EU to avoid supply chain disruptions. Once the rule is implemented, companies that fail to comply could face fines equivalent to up to 20 per cent of their annual turnover. However, critics have suggested that rather than waive the rule entirely, the EC could amend the law for gradual implementation to help Europe begin to tackle methane emissions.

Esther Bollendorff, the Fossil Free Programme Manager at Climate Action Network Europe, explained, “A three-year sanction holiday, triggered by exaggerated and unsubstantiated security of supply concerns raised by industry, risks giving a free pass to methane-intensive gas imports – notably from the U.S.” She added that the recommendations “should not deter member states from implementing robust penalty systems” and suggested that such actions are “essential to ensuring that companies pay the price for their pollution”.

The United States has been particularly vocal in its criticism of the law and of other EU climate policies. U.S. Energy Secretary Chris Wright, alongside Algeria, Nigeria, and Qatar, addressed the EU in June, warning of potential disruptions to the region’s oil and gas supply. A group of 17 EU member states also requested that the law be delayed.The EU has some of the world’s most far-reaching climate rules, which, if enacted, could provide a blueprint for other countries and regions to follow. However, the bloc is currently considering other changes to climate policy that could trigger backlash from environmentalists.

The EC has unveiled proposals to slow cuts to greenhouse gas emissions limits for businesses as part of a potential overhaul. The reforms would water down the rules for the EU’s emissions trading system and give businesses more time to reduce their carbon emissions than previously planned.

The proposed changes could allow some industries to extend the deadline to 2038, from 2034 at present, so long as they commit to investing in decarbonisation efforts. EU countries and lawmakers must approve the proposal for it to take effect, which could take up to a year. EU climate commissioner Wopke Hoekstra stated, “We are adopting a more business-friendly and, may I say so, savvy approach.” Meanwhile, the EC assured member states that the changes would still ensure the ETS was aligned with the EU’s target of reducing carbon emissions by 90 per cent by 2040, compared with 1990 levels.

Pressure from the United States and other countries, as well as continued global fuel shortages, has prompted the European Commission to encourage a temporary waiver on penalties for oil and gas companies that breach its methane emissions rules, much to the dismay of environmentalists. In addition, there are growing concerns that the EU’s strong climate policy may be watered down if other rule changes are imposed before it can be implemented.

By Felicity Bradstock for Oilprice.com

UCLA Scientists Turn Plastic Waste Into Pure Hydrogen Fuel


  • UCLA and Ewha Womans University researchers built a single-reactor process that turns unsorted PET, PE and PP plastic waste into high-purity hydrogen with zero carbon emissions.

  • The breakthrough, published this month in PNAS, lands as hydrogen research rebounds from a rough 2023, when only 7% of planned green hydrogen projects hit their schedule.

  • It follows a separate Chinese method that converts agricultural waste into hydrogen for $1.54 per kilogram, making the fuel newly competitive with fossil-based gray hydrogen.

Green hydrogen was supposed to be a silver bullet solution for decarbonizing hard-to-abate sectors like shipping and steelmaking. It was the buzziest technology out there – and then it fizzled out completely. But after years of languishing in labs without reaching any meaningful level of commercialization, hydrogen is making a roaring comeback thanks to back-to-back scientific breakthroughs and renewed interest in the fossil fuel alternative against the backdrop of the global oil and gas crisis brought on by the United States’ and Israel’s war in Iran.

Hydrogen is enormously useful in industrial processes and holds great promise for limiting their associated carbon emissions, as the element can be combusted at high temperatures like natural gas, heavy fuel oil, or thermal coal, but leaves behind nothing but water vapor when burned. However, hydrogen is only as clean and green as the processes and energies used to make it. The vast majority of hydrogen used in industrial applications is gray hydrogen, which is made using fossil fuels. Green hydrogen is the name for hydrogen made with renewable energies, but this, too, has its drawbacks.

A 2022 report from the International Renewable Energy Agency (IRENA) warned against the “indiscriminate use of hydrogen,” cautioning policy-makers to weigh their priorities carefully and to consider that extensive use of green hydrogen “may not be in line with the requirements of a decarbonised world” as it “requires dedicated renewable energy that could be used for other end uses.” In other words, green hydrogen may not be the smartest or most efficient use of clean energy. Plus, the process is often too expensive to be a realistic replacement for fossil fuels.

But recent breakthroughs have unlocked new methods of hydrogen generation that could change the calculus on green hydrogen’s affordability and efficiency. Researchers from the UCLA Samueli School of Engineering and Ewha Womans University in South Korea have discovered a way to convert plastic waste into pure hydrogen through a process called Alkaline Thermal Treatment (ATT).

Amazing, the method is capable of creating high-purity hydrogen from recyclables without even sorting the plastics. Using a single reactor, the method can convert the most common and hard-to-recycle kinds of plastics – polyethylene terephthalate (PET), polyethylene (PE), and polypropylene (PP) – into hydrogen fuel using a heat trigger, all with zero carbon emissions. The findings were published this month in the scientific journal PNAS.

“We are solving two urgent global problems at the same time,” said Ah-Hyung “Alissa” Park, professor of chemical and biomolecular engineering at UCLA, recently told Interesting Engineering. “Plastic waste is accumulating at alarming rates, and clean hydrogen is essential for decarbonizing energy. This technology tackles both of these challenges in a creative and scalable way,” the co-corresponding author went on to say.

This discovery is just the latest breakthrough in a now-thriving field of research seeking to convert waste products into clean hydrogen. Earlier this year, a team of researchers in China successfully converted sugars derived from agricultural waste (such as wheat stalks). Critically, this method makes the production of hydrogen much more affordable than standard green hydrogen production methods, at just $1.54 per kilogram (around $0.70 per pound), making it competitive with gray hydrogen.

This revival in research and breakthroughs comes after a long lull period in which it appeared as though green hydrogen was a lost cause. In 2023, less than a tenth of planned green hydrogen projects came to fruition. A study tracking 190 projects over 3 years found a “a wide 2023 implementation gap with only 7% of global capacity announcements finished on schedule.” But interest in green hydrogen research has been renewed as its role in energy security becomes increasingly clear against the backdrop of extreme oil market volatility. China, Europe, and the United States are all making concerted efforts to accelerate hydrogen investment, and it is evident that the renewed attention is already paying off.

By Haley Zaremba for Oilprice.com

Argentina’s Oil Production Soars as Vaca Muerta Breaks New Records


  • Argentina posted record oil production in May 2026 as Vaca Muerta continues to drive rapid growth.

  • Billions of dollars in investment from YPF and private producers are accelerating shale development and new infrastructure.

  • Analysts expect Argentina's oil output to reach 1–1.5 million barrels per day by 2030, strengthening its role in global energy markets.

Argentina’s massive shale oil and gas boom is going from strength to strength. The economically crisis-prone South American country yet again reported record monthly oil and natural gas production for May 2026. This couldn’t come at a better time for Argentina and South America. Rising global geopolitical risks, notably due to war in the Middle East, and domestic economic hazards hold the potential to derail the significant economic gains Argentina has made over the last two years.

Ministry of Economy data shows May 2026 oil production hit an all-time high of 887,227 barrels per day. This represents a 0.6% increase month over month and is an impressive 19% greater than the same period a year earlier. Natural gas output also rose to 5.5 billion cubic feet per day, which was just shy of the record 5.7 billion cubic feet daily reported for July 2025. Indeed, May 2026 natural gas production was 5.4% greater than a month prior and a stunning 11% higher year over year.

It is the massive shale boom underway in the 8.6-million-acre Vaca Muerta formation that is responsible for this solid production growth. For May 2026, shale oil comprised 70.6% of Argentina’s total oil production, while shale gas made up 69.8% of total output. Those ratios are at record highs for shale oil and gas as a proportion of Argentina’s total hydrocarbon output. This is a game changer for Argentina, which recently overtook Colombia to cement its place as South America’s fourth largest oil producer.

The Vaca Muerta shale formation, which is regularly compared to the Eagle Ford shale, is in the early stages of development. Drillers in the formation are still in that phase of deciding where the core producing areas are located. The Vaca Muerta is regarded as one of the most promising unconventional oil and gas plays globally, containing an estimated 16 billion barrels of recoverable oil and 308 trillion cubic feet of recoverable natural gas resources. This all points to tremendous future unconventional hydrocarbon production growth for Argentina.

Many of the Vaca Muerta shale formation’s characteristics are superior to U.S. shales, even the prolific Permian, which is the largest oil-producing basin in the United States. The formation’s shale is significantly thicker than the Permian, with it estimated to be at least double the width, allowing for more horizontal landings per pad and more frac stages per well. The Vaca Muerta’s organic content exceeds that found in most U.S. shale plays, while its reservoir pressure is significantly higher.

As a result, wells drilled in the Vaca Muerta are more efficient and have a longer more productive lifespan than more mature U.S. shale plays such as the Permian. This offsets the higher drilling costs in Argentina caused primarily by infrastructure constraints and a lack of operational resources in the Vaca Muerta. These negatives are being addressed with the federal government, in the capital Buenos Aires, driving greater investment in essential facilities needed to develop the Vaca Muerta.

The Vaca Muerta has an estimated breakeven cost of $36 to $45 per barrel, which is lower than most U.S. shale plays. The light sweet crude oil produced from the geological formation is particularly attractive for energy companies, especially in a world where there is an aggressive push to reduce emissions. The oil produced has an API gravity of 39 to 41 degrees and sulfur content of less than 0.5%. This makes that petroleum easier and cheaper to refine than the heavier sour grades produced throughout much of South America.

Oil production in the Vaca Muerta has an industry-low carbon intensity of just under 16 kilograms of carbon dioxide emitted per barrel of petroleum lifted. Some estimates put this important number even lower, with Argentina’s YPF, the largest acreage holder and producer in the Vaca Muerta, claiming that only 12 kilograms of carbon is released for every barrel of shale oil it produces. These are impressive figures well below the global oil industry average of 23 kilograms of carbon dioxide emitted for every barrel produced.

For those reasons, the Vaca Muerta continues attracting considerable attention from foreign energy companies. Estimates put 2026 upstream investment in the Vaca Muerta at around $10 billion. YPF, which was nationalized by President Cristina de Kirchner in 2012, budgeted 2026 capital expenditures of $5.8 billion, with around 70% to be spent on the company’s unconventional upstream acreage in the Vaca Muerta. This represents a solid increase over the $4.5 billion invested during 2025.

Argentina’s national oil company has earmarked significant capital expenditure of $35.7 billion between 2025 and 2030, with most of that capital to be directed to upstream exploration and production operations in its Vaca Muerta acreage. It isn’t only YPF investing in the shale formation; Big Oil and smaller privately owned drillers are investing considerable capital to acquire and develop acreage in the Vaca Muerta. As a result, 2026 investment from private oil companies is expected to exceed $4 billion.

Vista Energy, a pure-play shale producer which is the third largest producer in the Vaca Muerta, committed to investing $1.5 billion during 2026. Pluspetrol, the shale play’s fourth largest producer, plans to spend $800 million this year on its shale operations. The Vaca Muerta’s second largest oil producer, Pan American Energy, which lifted an average of 99,109 barrels daily for the first five months of 2026, has allocated $586 million for its 2026 capital expenditures.

For these reasons, analysts expect Argentina’s oil production to reach one million to 1.5 million barrels of crude oil daily by 2030, while natural gas output will soar to over 6 billion cubic feet per day. Those numbers could be significantly higher if YPF’s $25 billion investment, via Buenos Aires’ Large Investment Incentive Regime (RIGI), to accelerate development of the Vaca Muerta is successful. Production constraints due to a lack of midstream infrastructure are being addressed with new pipeline and storage facilities under development. This will accelerate the Vaca Muerta’s development and the rate at which hydrocarbon output grows.

By Matthew Smith for Oilprice.com

 Can an AI Black Box Be Trusted to Run a Nuclear Reactor?

  • China's Chinese Academy of Sciences unveiled ADANES at WAIC in Shanghai, a five-layer AI system meant to control nuclear reactors from design through decommissioning.

  • Nuclear officials call full AI integration inevitable, but today's opaque “black box” large language models clash with the transparency nuclear safety demands.

  • The push comes as Microsoft, NVIDIA and a wave of U.S. startups race into nuclear power to feed AI's soaring energy needs, sometimes outpacing safety oversight.

China has unveiled a daring new plan to integrate artificial intelligence throughout the nuclear energy life cycle. This week, at the World Artificial Intelligence Conference (WAIC) in Shanghai, researchers at the Chinese Academy of Sciences (CAS) revealed a new plan for safely integrating artificial intelligence into the nuclear sector, called ADANES  – the Accelerator-Driven Advanced Nuclear Energy System. The system “fundamentally changes the safety logic that governs conventional nuclear reactors” and marks a major turning point in the AI revolution as well as the global nuclear renaissance.

While nuclear disasters are historically rare, their potential fallout is massive. But there is potential for artificial intelligence to lessen this risk. According to Interesting Engineering, “Disasters like Chernobyl and Fukushima have reminded us time and again, that the risk of an accident remains with this technology, and we need to prepare for the worst scenarios. A technology like AI is well suited for this role as it can process large number of signals coming in from an operational reactor and shut it down in the earliest stages of a mishap.”

Wang Shoujun, the president of the Chinese Nuclear Society, makes the argument that the integration of large language models into every corner of the economy, including nuclear energy, is an inevitability. By accepting this as fact, the scientists behind the ADANES believe that the responsible thing to do is get ahead of the trend and focus on planning and safety measures, rather than trying to prevent AI from infiltrating the nuclear power sector. Wang says that, through the use of ADANES, “AI will play a core role throughout the full life cycle of nuclear energy by improving quality, efficiency and safety.”

However, today's large language models operate under great opacity, and this ‘black box’ functionality is fundamentally at odds with stringent nuclear energy safety requirements. We need a far greater level of transparency and a deeper understanding of how large language models work and will be applied in this context. According to a recent report from China Daily, ADANES can be used to establish such an understanding.

“The AI architecture consists of five layers — a unified data infrastructure, physics-native world models, physical-system control, intelligent-agent coordination and continuous evolution — embedding AI throughout the system's full life cycle, from design and commissioning to operation and maintenance,” the report states. China is also developing a national-scale supportive infrastructure to provide an “engineering verification platform” for ADANES in order to shore up the long-term stability and viability of the system.

It’s true that the artificial intelligence boom is already finding its way into the nuclear energy sector in various ways and to varying degrees. Earlier this year, tech giants Microsoft and NVIDIA announced that they are jointly rolling out an AI-powered toolkit designed to cut down on arduous permitting, design, and engineering processes that have made new nuclear plants notoriously slow and expensive to build in the United States.

Ushering in a new digital era for nuclear power, the toolkit “provides end-to-end tools that combine AI and digital twins for creating faster iterative design and engineering solutions,” according to a March report from Interesting Engineering. “Licensing and permitting is handled by Generative AI for document drafting and gap analysis.”

Furthermore, the push to develop new and advanced nuclear energy generation capacity is also being largely driven by the AI boom. Silicon Valley is getting increasingly involved in funding and developing next-gen nuclear technologies in order to fuel the rapidly growing energy demands of generative AI, which are projected to far outstrip energy additions unless we make some major breakthroughs. China is not the only nation making unsettlingly daring decisions when it comes to nuclear power. A wave of U.S.-based startups is also eagerly crowding into the sector with concerning disregard for safety measures, creating a concerning security environment in the world's largest economies.

By Haley Zaremba for Oilprice.com


Molten Salt Reactors Just Cleared A Major U.S. Regulatory Hurdle

  • The DOE granted its first-ever Nuclear Safety Design Agreement for a molten salt reactor, developed by Abilene Christian University in Texas.

  • MSRs use molten salt as both fuel and coolant, cutting water use and waste compared with standard reactors, and sidestepping the drought risk that just forced France to shut down reactors.

  • Critics say Trump's focus on unproven next-gen tech could slow his goal of quadrupling U.S. nuclear capacity by 2050, while China races ahead with its own thorium reactor.

domestic nuclear energy sector is set to bounce back as the technology finds favor among the public and policymakers alike for its ability to provide round-the-clock clean energy. At a time when data center hyperscalers are driving up energy insecurity and climate deadlines are drawing ever closer, the nuclear option is looking better and better. And not only is the United States trying to kickstart the expansion of traditional nuclear energy, it’s also trying to establish a place at the vanguard of next-gen nuclear energy technologies.

Just this month, in a historic first, the Department of Energy approved a Nuclear Safety Design Agreement for a molten salt reactor currently under development by researchers at Abilene Christian University in Abilene, Texas. Molten salt reactors (MSRs) are emerging as one of the leading potential technologies that could someday take over the global nuclear power sector, as they may be able to solve or sidestep many of the pitfalls associated with traditional nuclear energy.

“MSRs are designed to use less fuel and produce shorter-lived radioactive waste than other reactor types,” describes the United States Department of Energy. “They have the potential to significantly change the safety posture and economics of nuclear energy production by processing fuel online, removing waste products and adding fresh fuel without lengthy refueling outages.” In other words, MSRs are cheaper and safer than a standard nuclear fission reactor.

MSRs are also resource-efficient, with the molten salt acting as both the fuel medium and the coolant for the reactor. This also boosts the security and reliability of these models. Typically, nuclear reactors use water for cooling, which can lead to water stress in dry areas and render traditional power plants vulnerable to drought conditions and heat waves. Just this month, France was forced to take a slew of its nuclear reactors offline as a blistering heat wave heated the nation’s rivers to temperatures too high to be used safely for cooling.

These reactors are still in an experimental phase, but research labs like the one at Abilene Christian University and the Oak Ridge National Laboratory (ORNL) in Tennessee are pushing the technology closer to becoming a commercial reality. ORNL has made critical inroads into modelling and understanding the behavior of molten salt to better design the reactors for practical application, while Abilene is making major steps forward when it comes to regulatory measures. By securing key safety approval earlier this month, the lab has established “baseline parameters required for federal authorization of facility construction and system testing,” according to a recent report from Interesting Engineering.

These developments come against the backdrop of a major push for advanced nuclear power innovation from the Trump administration. The administration has said that it aims to “produce lasting American dominance in the global nuclear energy market” and has earmarked federal funds from the U.S. Department of Energy’s Reactor Pilot Program to accelerate the testing and commercialization of advanced nuclear technologies in order to bring them to scale through Executive Order 14301.

However, critics have pointed out that this focus on next-gen nuclear energy technologies like MSRs could actually be undermining Trump’s broader goal of quadrupling domestic nuclear energy production capacity by 2050. A recent op-ed for the Wall Street Journal argued that “The administration is chasing unproven technology when it could encourage Wall Street investment in large-scale reactors,” and, as a result, Trump’s nuclear renaissance is stalling.

Moreover, where ‘lasting American dominance’ is concerned, Trump’s bullish approach may be too little, too late. Half of the nuclear reactors under construction in the world are in China, and the country is on track to overtake the United States (and France) to become the world’s biggest producer of nuclear energy within the next ten years. And Beijing is at the forefront of next-gen nuclear technologies as well. China claims to have already built an operational thorium-based molten salt reactor (TMSR) that allegedly achieved “first criticality on October 11, 2023” and has since been “steadily generating heat through nuclear fission”.

By Haley Zaremba for Oilprice.com 

 

China’s Rare Earth Strategy Is Forcing a U.S. Manufacturing Revolution

Beijing is now desperately attempting to bring rare earth manufacturing back inside its own borders, exclusively.

New Chinese export restrictions specifically target American plans to begin the country’s first commercial production of rare earth magnet materials by 2027.

To counter that move, REalloys (NASDAQ: ALOY) is rebuilding every major stage of North America’s rare earth industry. Over the past two years, the company has assembled heavy rare earth feedstock, separation, metallization, alloy production, and permanent magnet manufacturing into a single North American mine-to-magnet supply chain designed to operate independently of Chinese material.

And now, the company’s first commercial facilities are expected to come online in the New Year, just as the Pentagon’s ban on Chinese-origin rare earth magnets takes effect, forcing defense manufacturers to secure entirely new sources of supply.

Under the pressure of escalating Chinese export restrictions and the Pentagon’s looming procurement ban, REalloys has become one of the focal points of America’s rare earth rebuild.

The Defense Logistics Agency (DLA) backed the company’s metallization technology, institutional investors committed approximately $100 million to accelerate construction, and the U.S. Army chose REalloys to build the first commercial heavy rare earth processing operation on a U.S. military base.

This is where the front line of the rare earths war shifts from mining to manufacturing.

China’s Step-By-Step Rare Earths War Plan

China’s campaign is advancing one restriction at a time, with each new measure tightening Beijing’s control over the global rare earth industry.

The first step was licensing.

Beijing began requiring exporters to seek approval before shipping key rare earth materials abroad, including the heavy rare earths needed for high-performance magnets. That gave China control over when material leaves the country, who receives it, and how long buyers are forced to wait.

The second step was targeting specific companies.

In June, China added U.S. rare earth firms, including MP Materials and USA Rare Earth, to its export control list, blocking Chinese-origin dual-use materials from reaching them, specifically. That changed the nature of the war entirely. 

Now, Beijing was controlling minerals, with the added restriction of also controlling which American companies could ultimately get their hands on them.

The third step was enforcement.

China created a public reporting system for suspected violations involving strategic mineral exports to close any remaining loopholes. Employees, competitors, freight companies, customs brokers, and financial service providers are all now part of the enforcement network. That means that rerouting material through third countries, disguising controlled products, or helping an end user evade restrictions is legally risky.

The fourth step was fear.

Reported detentions of foreign nationals and domestic enforcement actions against Chinese exporters have made suppliers more cautious. A Chinese company that once shipped rare earth material abroad now has to consider customs scrutiny, criminal liability, end-user documentation, and political risk before accepting an order.

The result is a supply chain that is becoming harder for Western companies to use by design. Even when material is technically available, the licensing, paperwork, delays, restricted-party exposure, and enforcement risk make Chinese-origin supply less reliable with every new rule.

Beijing is using rare earth controls to pull more value back inside China. If foreign manufacturers can’t reliably obtain heavy rare earths such as yttrium, dysprosium or terbium, then Chinese manufacturers end up replacing foreign manufacturers as suppliers of finished products.

The American answer to this, and the REalloys solution, is definitive: Recreate the entire supply chain to bypass China, turning the tables on Beijing’s restrictions, which now may prove too late to do as much damage as Beijing was hoping.

The Great American Industrial Buildout


Government support can launch a critical minerals strategy, but it can’t build an industry by itself overnight.

REalloys (NASDAQ: ALOY) reached that milestone in June, raising approximately $100 million from institutional investors to accelerate its vertically integrated mine-to-magnet platform, including what the company says will become the largest heavy rare earth metallization facility outside China and the Western Hemisphere’s first commercial-scale heavy rare earth metallization platform.

The financing provides working capital which is expected to go towards expanding processing, metallization and downstream manufacturing as the company moves toward commercial production, marking the transition from a government-backed concept to an industrial project financed by private markets.

Upstream, midstream, and downstream, REalloys has integrated everything.

Upstream: Non-China Feedstock Secured

REalloys first secured exclusive commercial agreements with the Saskatchewan Research Council (SRC), giving REalloys long-term access to separated heavy rare earth materials, including dysprosium and terbium oxides.

In a rapid succession of offtake deals, REalloys also signed a 15-year definitive offtake agreement with Critical Metals Corp. covering 15% of Phase 1 production from the Tanbreez Project in Greenland, one of the world’s largest rare earth deposits outside China.

Additional agreements with St George Mining in Brazil, Patriot Exploration & Mining in Montana, Ramaco Resources in Wyoming, Kazakhstan-based partners and others expanded the company’s future feedstock pipeline across multiple allied jurisdictions and geological sources.

Those materials are among the hardest to obtain outside China and are essential for the high-temperature permanent magnets used in fighter aircraft, guided missiles, submarines, radar systems and other defense platforms.

Midstream: Battling China’s Metallization Monopoly

For conversion into alloys, also known as “metallization”, REalloys boldly goes where China has dominated for decades. Feedstock is only the first step. Those rare earth oxides must still be converted into high-purity metals before they can be alloyed and manufactured into permanent magnets.

In March, the U.S. Defense Logistics Agency (DLA) awarded REalloys a contract worth up to $1.7 million to design a modular facility capable of producing up to 300 metric tons per year of samarium and gadolinium metals. The award backed REalloys’ metallization technology, recognizing one of the least-developed capabilities in the American rare earth supply chain.

Only days later, REalloys announced plans to build the largest heavy rare earth metallization facility outside China.

The facility is expected to produce approximately 30 tonnes of dysprosium and 15 tonnes of terbium metal annually, converting heavy rare earth oxides into the high-purity metals required for defense-grade permanent magnets. The equipment will be built and commissioned in Saskatoon in partnership with the SRC before being relocated to REalloys’ operations in Euclid, Ohio, where it will supply the company’s downstream alloy and magnet manufacturing platform.

As the U.S. Army was negotiating direct rare earths processing for the first time at an American military base, REalloys was not growing complacent. Instead, it was forging its downstream strategy to bring this national security supply chain full circle.

Earlier this month, REalloys signed a strategic agreement with permanent magnet manufacturer JS Link to develop one of the first fully integrated non-Chinese rare earth magnet platforms. The agreement brings together feedstock, separation, metallization, alloy production, and permanent magnet manufacturing under a single North American industrial strategy.

The enormity of this supply chain is exactly why a former Vice Chief of Staff of the Army, the president of GM Defense, a former Chief of Staff to the Secretary of Defense, a former Canadian ambassador to Washington, and one of Wall Street’s senior investment bankers have all converged around REalloys.

The board is chaired by Stephen duMont, the President of GM Defense and a former senior executive at Raytheon Technologies. His career has centered on supplying advanced military systems to the U.S. Department of Defense, giving him direct experience with the procurement processes and industrial requirements that increasingly shape the rare earth industry.

Joining him on the board is General Jack Keane, the former Vice Chief of Staff of the U.S. Army and one of America’s best-known military strategists. Keane has spent decades advising U.S. defense leaders on national security and military modernization, bringing a strategic perspective closely aligned with the Pentagon’s growing focus on securing domestic supplies of critical materials.

The company also appointed Joe Kasper, former Chief of Staff to the U.S. Secretary of Defense, as Chairman of its Advisory Board. Kasper played a central role in defense policy and acquisition during his time at the Pentagon, where rebuilding secure supply chains for strategic materials became an increasingly important national priority.

On the Canadian side, former Canadian Ambassador to the U.S. David MacNaughton and former Saskatchewan Premier Brad Wall provide deep experience in North American industrial cooperation. And on the financial side, REalloys has brought in Bob Foresman, former Vice Chairman of UBS Investment Bank, whose career has focused on international capital markets and large-scale corporate finance.

What they all see is this: A massive opportunity to flip Chinese assumptions that the West will remain dependent on Beijing for its defense.

REalloys' strategy also reflects a much broader shift taking place across the North American industrial base. MP Materials (NYSE: MP) is expanding beyond mining into domestic magnet production, while global mining heavyweight Rio Tinto (NYSE: RIO) continues increasing its exposure to critical minerals as demand for rare earths, lithium and other strategic materials accelerates. The industry is increasingly moving away from simply extracting raw materials toward securing entire supply chains, from mining and processing to advanced manufacturing.

That transition matters because some of America's largest industrial companies depend on secure access to these materials. Honeywell (NASDAQ: HON) uses rare earth-based technologies across its aerospace, automation and defense businesses, while Caterpillar (NYSE: CAT) is incorporating greater electrification, autonomous systems and advanced motors into its mining and construction equipment. As China's export controls become more restrictive, companies throughout the manufacturing sector are recognizing that supply chain security has become just as strategically important as access to the minerals themselves.

Rather than viewing rare earths as simply another mining story, investors are increasingly seeing them as the foundation of the next generation of American industrial manufacturing. The companies that can secure reliable supplies of critical minerals, processing capacity and permanent magnets will be better positioned to support the growing needs of defense, aerospace, electric vehicles, robotics and AI-driven infrastructure in the years ahead.

With commercial production approaching, private capital complementing government seed funding, and defense procurement rules about to change permanently, this Rare Earths War is moving from policy papers to factory floors. For the first time in a generation, the United States is approaching the point where it can compete for the entire rare earth value chain instead of simply buying pieces of it from abroad.

By. Michael Kern