Lockheed F-35 Labor Contract Secures Fort Worth Production Continuity

F-35

Lockheed F-35 labor contract has been ratified by unionized employees at the company’s Fort Worth, Texas, assembly site, removing the immediate risk of labor disruption at one of the most important US fighter aircraft production facilities.

Lockheed F-35 labor contract will run for five years through June 2031 and includes annual wage increases, additional vacation benefits and a $6,000 ratification bonus. Workers represented by the International Association and Aerospace Workers approved the agreement on 14 June.

Lockheed F-35 labor contract is strategically important for the aerospace materials supply chain because the F-35 is highly titanium intensive. Each aircraft contains an estimated 5,900lb of titanium, equivalent to roughly 20% of total aircraft weight.

The agreement therefore provides greater production certainty not only for Lockheed Martin, but also for titanium mills, forgers, machinists and component suppliers tied to the F-35 programme.

Labor Stability Protects F-35 Production Schedules

The previous labor agreement was due to expire at midnight on 14 June, creating the possibility of disruption if negotiations failed.

Lockheed and the union reached a tentative agreement on 11 June before workers formally ratified the contract three days later.

The agreement also covers employees at Edwards Air Force Base in California and Patuxent River Naval Air Station in Maryland, extending labor stability beyond the Fort Worth assembly operation.

For Lockheed, avoiding a work stoppage is particularly important because fighter aircraft production depends on highly specialised labour and tightly coordinated supplier schedules.

A prolonged disruption at final assembly could quickly affect upstream suppliers because aerospace components are produced according to programme-specific delivery schedules and qualification requirements.

The five-year agreement gives Lockheed greater visibility over workforce costs and production continuity through the end of the decade.

Titanium Supply Chain Benefits From Production Continuity

The F-35 remains one of the most titanium-intensive major aircraft programmes. Titanium is used extensively because of its high strength-to-weight ratio, corrosion resistance and compatibility with composite structures.

At around 5,900lb of titanium per aircraft, changes in F-35 production volumes can have a meaningful impact on aerospace-grade titanium demand.

The material requirement extends beyond sponge and ingot. F-35 production supports demand for titanium plate, billet, forgings, castings, machined components and scrap recycling across a highly qualified supply chain.

Labor stability at Fort Worth therefore reduces one potential source of demand volatility for titanium suppliers.

The effect also extends to other aerospace materials, including nickel-based superalloys, aluminium and specialty steels used across engines, structures and landing systems.

For suppliers, predictable aircraft production is especially valuable because aerospace capacity cannot be adjusted quickly. Qualification requirements, long lead times and specialised equipment make sudden production changes difficult to absorb.

The Metalnomist Commentary

The labor agreement removes a near-term operational risk from one of the world’s most titanium-intensive defense programmes. For the titanium supply chain, stable F-35 production provides valuable demand visibility through a period of rising defense manufacturing requirements.

Japan Aluminium Extrusion Merger Brings Nippon Light Metal and Kobe Steel Together

Nippon Light Metal

Japan aluminium extrusion merger plans will combine the domestic extrusion businesses of Nippon Light Metal and Kobe Steel as both companies seek stronger competitiveness in a weaker demand environment.

Japan aluminium extrusion merger is expected to create a joint holding company from April 2027 or later, with Nippon Light Metal holding a majority stake. The companies aim to sign a definitive agreement by the end of November 2026.

Japan aluminium extrusion merger will combine businesses selling roughly 58,000 t/yr in total. Nippon Light Metal’s unit handles around 30,000 t/yr, while Kobe Steel’s Chofu Works sells about 28,000 t/yr.

The integration will bring together Kobe Steel’s alloy development expertise and Nippon Light Metal’s processing technology and wider customer base across transport, machinery and industrial markets.

Combination Targets Cost Cuts and Stronger Automotive Position

Kobe Steel’s aluminium extrusion business has faced weaker earnings as orders declined, prompting the company to consider partnerships as part of its long-term restructuring.

The merger gives both companies an opportunity to consolidate overlapping functions and improve capacity utilisation.

Kobe Steel brings particular strength in automotive components, railway applications and alloy development. Nippon Light Metal contributes a broader order base spanning transport equipment, industrial machinery and containers.

Combining these capabilities could strengthen the new entity’s position in higher-value extrusion markets where alloy performance, precision processing and customer qualification are important.

The companies also plan to standardise capital investment across the combined business. This should reduce duplicated spending and allow equipment upgrades to be prioritised across a larger production network.

Cost reduction will be especially important as Japanese aluminium processors face pressure from weaker domestic demand and global competition.

Scrap Collection Becomes Part of the Integration Strategy

The companies also plan to improve aluminium scrap collection through the combined business.

This is strategically important because recycled aluminium can lower both raw material costs and carbon intensity compared with primary metal.

A larger extrusion platform can generate more internal process scrap while also strengthening relationships with external scrap suppliers and customers.

Better scrap collection could support closed-loop recycling arrangements, particularly in automotive applications where manufacturers increasingly seek lower-carbon aluminium.

The integration therefore extends beyond conventional consolidation. It could help the companies build a more efficient material cycle linking billet casting, extrusion, processed products and scrap recovery.

The new entity will cover Nippon Light Metal units including Nikkeikin Aluminium Core Technology, as well as Kobe Steel’s extrusion, billet casting, processed products and domestic sales operations at Chofu Works.

The Metalnomist Commentary

The merger shows that Japan’s aluminium extrusion sector is entering a consolidation phase driven by weaker demand and cost pressure. The strongest strategic upside may come from combining alloy technology with better scrap recovery and higher-value automotive applications.

USAR Rare Earth Separation Plant Starts Operations in Colorado

US rare earths

USAR rare earth separation capacity has taken another step forward after USA Rare Earth commissioned its hydrometallurgical demonstration plant in Wheat Ridge, Colorado. The facility will produce separated heavy rare earth oxides, with initial output scheduled for the third quarter of 2026.

USAR rare earth separation will target strategically important materials including dysprosium, terbium and yttrium. These elements are critical to high-performance magnets, aerospace, defence, electronics and other advanced manufacturing applications.

USAR rare earth separation is especially significant because heavy rare earth processing remains one of the most concentrated stages of the global supply chain. Developing domestic separation capability could reduce US dependence on overseas processing.

The Wheat Ridge facility will also test multiple feedstock routes, allowing USAR to process mined material alongside recycled magnet waste.

Three Feedstocks Test a Flexible Heavy Rare Earth Supply Model

The Wheat Ridge plant is designed to process three flowsheets in parallel. These include ore from USAR's Round Top project in Texas, material from the Serra Verde Pela Ema mine in Brazil and magnet swarf from manufacturing operations.

This diversified feedstock strategy is strategically important. A separation facility capable of handling both primary resources and recycled material can reduce dependence on a single mine or supply route.

Round Top provides a potential domestic US feedstock source, while Serra Verde gives USAR exposure to Brazilian heavy rare earth resources.

Magnet swarf adds a recycling pathway. Manufacturing waste can contain valuable neodymium, dysprosium, terbium and other rare earths that can be returned to the supply chain instead of being discarded.

The combination creates the basis for a more circular rare earth system connecting mining, recycling and downstream separation.

The plant's automation and real-time process monitoring should also generate technical data required for commercial scale-up. In rare earth processing, consistent purity, recovery and process control are essential before technology can move into large-scale production.

Federal Funding Supports USAR's Integrated Rare Earth Strategy

USAR has secured access to as much as $1.6bn in US government funding, providing significant financial support for its wider rare earth strategy.

The company is attempting to build an integrated supply chain extending beyond mining into separation, metals, alloys and permanent magnets.

Its planned acquisition of Serra Verde would further strengthen that structure by adding an operating Brazilian heavy rare earth resource. The transaction remains subject to regulatory scrutiny in Brazil.

Heavy rare earths are especially important because dysprosium and terbium are used to improve the temperature resistance of NdFeB permanent magnets.

These magnets are critical to electric motors, defence systems, robotics, aerospace and other high-performance applications.

For the US, securing access to ore alone is therefore insufficient. Separation capacity is essential because mixed rare earth feedstock must be converted into individual high-purity oxides before downstream metallisation and magnet production.

The Colorado demonstration plant gives USAR an opportunity to prove that capability across several feedstock types before moving toward larger-scale production.

The Metalnomist Commentary

USAR's Colorado plant targets one of the hardest bottlenecks in the non-China rare earth chain: heavy rare earth separation. Its ability to process both mined feedstock and magnet waste could become strategically valuable if the technology proves scalable.

UCB Power BESS Production Gains Tax Support in Brazil

UCB Power

UCB Power BESS production will receive tax support as Brazil seeks to expand domestic manufacturing of battery energy storage systems. The Brazilian battery producer will benefit from reduced import tariffs on foreign components used in production.

UCB Power BESS production adds another industrial layer to Brazil’s growing energy storage market. The incentives will be administered through the Manaus Free Trade Zone framework, although specific tariff reductions have not been disclosed.

UCB Power BESS production also has implications for critical mineral demand. Lithium-ion storage systems require materials including lithium, nickel, cobalt, manganese, graphite, copper and aluminium across cells, electrical systems and enclosures.

The policy therefore supports more than battery assembly. It could help Brazil gradually build a domestic energy storage ecosystem around renewable power, grids and industrial electricity management.

Tax Incentives Strengthen Domestic Battery Manufacturing

Brazil’s Manaus Free Trade Zone provides tax incentives intended to encourage industrial production in the country’s northern region.

UCB Power will gain lower import costs for foreign components required in BESS manufacturing. This can improve the competitiveness of domestic production while Brazil develops more local supply capability.

The incentives remain subject to standard requirements within the Manaus framework, including environmental and research obligations.

Battery storage manufacturing remains dependent on imported cells, materials and electronic components in many emerging markets. Lower tariffs can therefore reduce the cost disadvantage faced by local manufacturers during the early stages of industry development.

UCB already operates battery factories in Manaus and Extrema, Minas Gerais. The company says its portfolio represents more than 7.8GWh of installed capacity.

That existing manufacturing base gives UCB a stronger position to expand into grid-scale and industrial energy storage as Brazilian electricity demand evolves.

BESS Growth Could Create New Critical Mineral Demand

Battery energy storage is becoming increasingly important as power systems integrate more intermittent renewable generation.

BESS installations can store electricity when supply is abundant and discharge it when demand rises, improving grid flexibility and helping industrial users manage electricity costs.

Lithium-ion technology currently dominates the market, creating demand across a broad range of battery materials.

For Brazil, this creates an opportunity to connect domestic battery manufacturing with its substantial mineral resource base. The country has resources across lithium, nickel, manganese and other materials relevant to energy storage.

However, mineral availability alone will not create an integrated battery industry. Brazil will need refining, active materials production, cell manufacturing and recycling capacity if it wants to capture more of the value chain.

Supporting BESS assembly is therefore an early step toward a broader industrial ecosystem rather than the endpoint.

The Metalnomist Commentary

Brazil has the mineral resources and renewable power base to build a larger battery industry, but the missing link remains downstream processing and cell production. UCB’s expansion can help create domestic demand that makes those investments more commercially attractive.

Colorado Battery Recycling Law Sets Mandatory Lithium Recovery Targets

Colorado Battery Recycling

Colorado battery recycling law introduces mandatory recovery targets for lithium, nickel and cobalt from electric and hybrid vehicle batteries. The measure creates a more structured framework for recovering critical minerals from end-of-life batteries.

Colorado battery recycling law requires recyclers to recover 50% of lithium from spent batteries by 2031 and 80% by 2035. Nickel and cobalt recovery must reach 90% by 2031.

Colorado battery recycling law will also prohibit landfilling of EV batteries from July 2029. This should push more used packs toward reuse, dismantling and materials recovery.

The legislation strengthens the commercial case for domestic battery recycling by creating clearer collection obligations and long-term recovery requirements.

Mandatory Recovery Targets Support Secondary Battery Materials

The Battery Stewardship Act requires battery stewardship organizations to submit plans covering collection, transportation, processing and recycling.

The lithium target is particularly important because recovering lithium economically has historically been more challenging than recovering nickel and cobalt.

A 50% recovery requirement by 2031 gives recyclers time to improve process efficiency before the threshold rises to 80% in 2035.

The 90% recovery requirement for nickel and cobalt sets an even higher standard. Both metals remain valuable inputs for several lithium-ion battery chemistries.

Recovering these materials can reduce dependence on newly mined supply and create more domestic secondary feedstock for battery manufacturers.

The landfill ban reinforces that objective by keeping valuable battery materials inside the industrial supply chain.

Producer Fees Could Improve Battery Collection and Recycling Economics

Battery providers will fund part of the system through fees linked to their share of battery vehicles registered in Colorado.

An initial programme fee will support implementation. Annual payments beginning by July 2030 will cover administration, enforcement and regulatory costs.

This shifts more responsibility for end-of-life batteries toward companies placing battery vehicles into the market.

The framework could also improve feedstock certainty for recyclers. Reliable access to spent batteries remains one of the biggest challenges facing the emerging US battpery recycling industry.

Over time, the legislation may encourage better pack design for dismantling, reuse and materials recovery.

If similar policies spread to other states, US battery recycling could develop around mandatory recovery standards rather than voluntary collection alone.

The Metalnomist Commentary

Colorado is turning battery recycling into a regulated critical minerals supply chain. The most important benefit may be feedstock certainty, because recyclers need predictable battery volumes as much as better recovery technology.

Global Warming 1.5°C Threshold Could Be Crossed by 2030

UNFCCC

Global warming 1.5°C threshold could be exceeded within about four years if current emissions trends continue, according to an international team of climate scientists. Human-induced warming reached 1.37°C above the 1850-1900 average in 2025.

Global warming 1.5°C risk is rising because greenhouse gas concentrations remain at record levels. Human-induced warming is increasing at around 0.27°C per decade, keeping the world on a trajectory toward further temperature increases.

Global warming 1.5°C also carries direct industrial implications. More frequent heat, drought, flooding and extreme weather can disrupt mining, energy systems, transportation networks and metals production.

The remaining carbon budget consistent with limiting warming to 1.5°C is estimated at around 130bn t of CO2 from the start of 2026. At current emission rates, that budget could be exhausted in roughly three years.

Carbon Budget Shrinks as Emissions Remain Near Records

Global greenhouse gas emissions reached a record 56.8bn t of CO2 equivalent in 2024, with fossil fuel consumption remaining the largest contributor.

The rate of emissions growth has started to slow, suggesting that renewable energy, electrification and climate policies are beginning to affect the trajectory.

However, slower emissions growth is not the same as absolute emissions reductions. Global CO2 output must fall substantially if the remaining carbon budget is to last longer.

That creates additional pressure on governments to accelerate investment in renewable power, grids, storage, nuclear energy and energy efficiency.

For metals markets, this implies stronger structural demand for copper, aluminium, electrical steel, lithium and other materials required for electrification.

At the same time, heavy industries such as steel, aluminium, cement and chemicals will face greater pressure to lower emissions from existing production.

This increases the strategic value of low-carbon electricity, recycling and technologies that reduce the emissions intensity of industrial production.

Strong El Nino Could Add Near-Term Climate Pressure

The emergence of El Nino conditions could temporarily accelerate global temperatures even further.

Current forecasts suggest the event could become very strong, with some models indicating potentially record intensity. El Nino typically raises global temperatures by releasing additional heat from the tropical Pacific into the atmosphere.

That could push annual temperatures sharply higher and potentially make the coming year the hottest recorded since modern measurements began.

The hottest year so far remains 2024, while 2023-25 were the three warmest years on record. Their combined average was around 1.48°C above pre-industrial levels.

Temporary annual breaches do not necessarily mean the Paris Agreement's long-term 1.5°C target has formally been exceeded. However, repeated breaches would indicate that the underlying warming trend is moving increasingly close to that level.

For industry, the implications extend beyond emissions regulation. Extreme temperatures and weather events can reduce hydropower availability, disrupt mining operations, strain electricity grids and increase cooling demand.

Climate risk is therefore becoming an operational and supply-chain issue as much as an environmental one.

The Metalnomist Commentary

The shrinking carbon budget increases pressure for faster electrification, but that transition will require enormous quantities of metals. The challenge is that climate policy is simultaneously increasing demand for critical materials while climate disruption makes producing those materials more difficult.

GM Redwood Battery Storage Project Extends EV Battery Value Chain

BESS

GM Redwood battery storage project will deploy repurposed electric vehicle battery packs at a General Motors plant in Michigan, extending the useful life of batteries before final recycling.

GM Redwood battery storage project will combine 100 reused EV battery packs into a 1.5MW/7.2MWh battery energy storage system. The installation will provide dispatchable power and help reduce electricity costs at the manufacturing site.

GM Redwood battery storage project is significant because it connects battery manufacturing, vehicle use, second-life energy storage and materials recovery within one supply chain. Redwood estimates the system will save more than $3mn in electricity costs over its operating life.

The project also shows how retired EV batteries can remain economically valuable even after they no longer meet automotive performance requirements.

Second-Life Batteries Add Value Before Recycling

EV batteries typically retain significant usable capacity when they are removed from vehicles. That remaining energy storage capability can support stationary applications where weight and space are less restrictive than in automotive use.

Repurposing packs for BESS applications can therefore delay recycling while extracting additional economic value from the battery.

For industrial facilities, storage systems can help manage peak electricity demand, provide backup power and shift energy consumption toward lower-cost periods.

The Michigan installation gives GM a direct opportunity to reduce plant electricity costs using batteries already linked to its own vehicle ecosystem.

This model also reduces the need for newly manufactured cells in some stationary storage applications. That can lower incremental demand for lithium, nickel, cobalt, graphite and other battery materials.

However, second-life systems still require testing, battery management and safety controls because used packs can have different degradation histories and performance characteristics.

Redwood Builds Closed-Loop Battery Supply Chain With GM

Redwood's relationship with GM extends across multiple stages of the battery lifecycle. The recycler handles manufacturing scrap, end-of-life EV packs and now second-life energy storage deployment.

Redwood has already received more than 28,000t of material from GM, with another 10,000 EV battery packs expected to enter the pipeline.

The company also works with Ultium Cells, GM's joint venture with LG Energy Solution, to recycle battery production scrap from facilities in Ohio and Tennessee.

This creates a more integrated materials loop. Manufacturing scrap can return quickly to recycling, while vehicle batteries can first enter stationary storage before eventually being processed for material recovery.

The approach could become increasingly important as EV battery volumes grow. Recycling alone captures raw materials, but second-life deployment can add another revenue stage before final recovery.

For automakers, that can improve battery economics while strengthening access to recycled lithium, nickel, cobalt and copper over the longer term.

The Metalnomist Commentary

GM and Redwood are showing that the battery circular economy does not begin with recycling. Second-life storage can create an additional commercial stage between vehicle use and materials recovery, improving both battery economics and supply-chain efficiency.

US Aluminum Scrap Export Bill Targets Supply Security

Aluminum Scrap

US aluminum scrap exports are facing new scrutiny after legislation was introduced directing the US International Trade Commission to examine the national and economic security risks of shipments to China, Russia, North Korea and Iran.

US aluminum scrap exports have become increasingly important to domestic supply discussions because recycled metal now represents a major share of US aluminum consumption. The country recovered about 3.6mn t of aluminum from purchased scrap in 2025 while exporting an estimated 2.2mn t.

US aluminum scrap exports therefore sit at the centre of a policy debate between manufacturers seeking more domestic feedstock and recyclers that depend on overseas markets for surplus material.

The proposed Secure Aluminum Supply Chains bill would require an investigation rather than immediately impose export restrictions. Any future impact on trade would depend on the findings and subsequent policy decisions.

Domestic Mills Seek More High-Quality Scrap

US aluminum producers are increasing recycled content as they expand secondary smelting, rolling and remelting capacity. This raises demand for high-quality scrap such as used beverage cans and mill-grade material.

The Aluminum Association has previously supported tighter controls on selected scrap exports, particularly used beverage cans moving outside North America. Its position reflects concern that valuable feedstock is leaving the domestic manufacturing system.

Retaining more scrap could support US rolling mills, secondary smelters and downstream manufacturers by improving access to lower-energy aluminum feedstock.

Recycled aluminum has a significant energy advantage over primary metal production. That makes scrap increasingly valuable as manufacturers seek lower-carbon metal while controlling power costs.

The debate is also connected to US primary aluminum dependence. Greater use of recycled material can reduce pressure on imported primary metal and preserve primary aluminum for applications with tighter chemistry or performance requirements.

However, scrap quality matters. Not every exported grade can immediately replace primary metal or higher-quality domestic scrap in existing manufacturing systems.

Recyclers Warn Export Limits Could Create Domestic Surplus

The recycling industry argues that US manufacturers currently cannot absorb all aluminum scrap generated domestically.

Export markets therefore function as an outlet for material that may not have an immediate domestic buyer. Restricting those flows before sufficient processing and remelting capacity exists could weaken scrap prices and reduce incentives for collection.

This creates an important sequencing issue. Export controls could increase domestic availability, but additional recycling, sorting and remelting infrastructure would be needed to consume the material effectively.

The proposed investigation could help quantify that balance by examining scrap generation, domestic processing capacity, industrial demand and export destinations.

For US manufacturers, the long-term opportunity is to capture more recycled aluminum inside domestic supply chains. For recyclers, the concern is that restrictions introduced too quickly could reduce market liquidity.

The industrial question is therefore not simply whether the US exports too much scrap. It is whether domestic manufacturing capacity can absorb substantially more material at competitive prices and required quality levels.

The Metalnomist Commentary

Aluminum scrap is becoming a strategic feedstock as US producers expand recycling and seek lower-carbon metal. Any future export restrictions will be most effective if domestic sorting, remelting and manufacturing capacity grows fast enough to absorb the additional supply.

US Rare Earth Supply Gets $134mn Boost for Waste-Based Processing Projects

US Rare Earth

US rare earth supply efforts are gaining another $134mn in federal support as the Department of Energy backs two demonstration projects designed to recover and refine rare earth materials from domestic waste streams.

US rare earth supply development will focus on projects led by the Colorado School of Mines and Phoenix Tailings. Both groups have been selected for award negotiations under the DOE’s Rare Earth Element Demonstration Facility Program.

US rare earth supply remains constrained by limited domestic separation, refining and metallisation capacity. The latest awards target those midstream gaps rather than simply adding new mining projects.

The projects are also notable because both will use waste-derived feedstock. That could create new rare earth supply without depending entirely on conventional mines.

Louisiana Project Targets Rare Earths From Bauxite Waste

The Colorado School of Mines-led project will develop a demonstration facility near the Gramercy alumina refinery in Louisiana’s St John the Baptist Parish.

The facility will process critical mineral-rich bauxite waste into separated rare earth oxides and then refine those oxides into rare earth metals.

This approach is strategically important because alumina production creates large waste streams that can contain recoverable critical minerals. Extracting rare earths from existing residues could turn an environmental liability into a domestic resource.

The project also connects the aluminium and rare earth value chains. Bauxite is primarily processed for alumina, but recovering additional metals could improve resource efficiency and create new revenue streams.

Colorado School of Mines will work with ElementUSA, Pacific Northwest National Laboratory, Principal Minerals and Rare Earth Technologies.

The project therefore combines academic expertise, national laboratory capability and industrial partners. That structure could help move rare earth recovery technology from laboratory development toward commercial-scale deployment.

Phoenix Tailings Adds Domestic Rare Earth Metal Capacity

Phoenix Tailings will build a separate demonstration-scale facility focused on producing high-purity rare earth metals from waste-derived domestic feedstock.

This is especially important because rare earth metal production remains a major bottleneck in western supply chains. Separated oxides still need to be converted into metals and alloys before they can support permanent magnet manufacturing.

Phoenix Tailings will collaborate with the Massachusetts Institute of Technology on the project.

The company’s focus on waste-derived feedstock also supports a circular supply model. Industrial residues, scrap and other secondary materials can complement mine supply while reducing reliance on imported rare earth inputs.

For the US, the strategic objective is integration. Domestic mining or recycling alone is insufficient unless separation, refining, metallisation and downstream manufacturing are also available.

The DOE funding shows that federal policy is increasingly targeting these missing processing stages. If the projects scale successfully, they could strengthen domestic supply for magnets, defence systems, electronics and advanced manufacturing.

The Metalnomist Commentary

The US is increasingly treating industrial waste as a critical minerals resource. The real value of these projects lies in proving that domestic residues can be converted into separated oxides and high-purity metals at commercial scale.

UK Seventh Carbon Budget Sets 87% Emissions Cut Target for 2038-42

Climate Change Committee

The UK seventh carbon budget sets a legally binding ceiling of 535mn t of CO₂ equivalent for 2038-42, equivalent to roughly an 87% reduction in greenhouse gas emissions from 1990 levels. The target includes the UK’s share of international aviation and shipping emissions.

The UK seventh carbon budget gives energy-intensive industries a clearer long-term decarbonisation trajectory. Steel, aluminium, chemicals, transport and other industrial sectors will increasingly need to align capital spending with lower-carbon power, electrification and emissions reduction.

The UK seventh carbon budget follows the recommendation of the independent Climate Change Committee. The CCC identifies electrification and low-carbon electricity as the largest contributors to its pathway, accounting for around 60% of required emissions reductions by 2040.

The target strengthens the investment signal around renewable power, nuclear energy, grids and industrial electrification. It also reinforces the UK’s legally binding objective of reaching net-zero greenhouse gas emissions by 2050.

Industrial Decarbonisation Will Require More Clean Power and Metals

The new carbon budget has direct implications for UK manufacturing. Deep emissions reductions will require industry to replace fossil fuel consumption with electricity, low-carbon fuels and more efficient production processes.

For metals markets, that transition creates additional demand for copper, aluminium and electrical steel. Grid expansion, renewable power, electric transport and industrial electrification all require substantial quantities of conductive and structural materials.

The target can also increase pressure on high-emission materials producers. Steel and aluminium customers are increasingly tracking embedded carbon, while future investment decisions will depend more heavily on access to competitive low-carbon electricity.

Energy security is another part of the policy case. The UK government argues that greater reliance on domestic clean power can reduce exposure to volatile imported fossil fuel markets, while the CCC has similarly linked its recommended pathway with lower dependence on imported fuels.

This creates both risk and opportunity for industry. Companies with access to renewable power, recycling, efficient processing and lower-carbon technologies may gain an advantage as the emissions ceiling tightens.

Long-Term Target Gives Investors a Clearer Policy Signal

Carbon budgets cap total UK greenhouse gas emissions over five-year periods, giving companies a longer planning horizon than annual targets. The seventh budget extends that framework through 2042.

That certainty matters for infrastructure with long investment cycles. Power networks, nuclear projects, smelters, industrial plants and transport systems often require capital decisions many years before new capacity begins operating.

The government has said a specific delivery plan for the seventh carbon budget will follow, setting out how the target will be achieved. The existing Carbon Budget and Growth Delivery Plan covers earlier budgets through 2037.

The industrial challenge will therefore shift from setting the target to allocating the cost of delivery. Power availability, grid expansion, industrial support and technology investment will determine whether UK manufacturers can cut emissions without losing competitiveness.

The Metalnomist Commentary

The seventh carbon budget gives UK industry a clear direction, but the real test is whether clean electricity and grid capacity expand fast enough to support it. For metals producers, lower-carbon power could become as important to competitiveness as raw material cost.

USA Rare Earth France Investment Targets Integrated European Magnet Supply Chain

USA Rare Earth

USA Rare Earth France investment plans will deploy more than $203mn by 2030 to expand rare earth separation, metal, alloy and magnet manufacturing capacity. The move strengthens France’s position in Europe’s effort to build a complete rare earth value chain outside China.

USA Rare Earth France investment builds on the company’s acquisition of UK-based Less Common Metals and its planned investment in French rare earth specialist Carester. Together, the projects connect oxide separation with rare earth metals, alloys, recycling and eventual magnet manufacturing.

USA Rare Earth France investment is strategically important because Europe still has major gaps between rare earth feedstock and finished permanent magnets. Building these intermediate processing stages is essential for automotive, defence, aerospace and industrial customers seeking diversified supply.

French government incentives, debt guarantees and potential direct equity investment in USAR’s European subsidiary could support the expansion. This shows how public capital is increasingly being used to make non-China rare earth processing commercially viable.

Lacq Links Rare Earth Oxides With Metals and Alloys

USAR acquired Less Common Metals for $125mn in September and plans to develop a 3,750 t/yr rare earth metal and alloy facility at Lacq in southwestern France.

The location is strategically important because the LCM facility will be co-located with Carester’s 1,600 t/yr Ceramag rare earth oxide plant. Ceramag is scheduled to start commissioning in late 2026.

Co-location can shorten the supply chain between separated oxides and metal or alloy production. This reduces logistics complexity and helps create a more integrated industrial cluster.

Rare earth metals and alloys are critical intermediate products. Separated neodymium, praseodymium, dysprosium and terbium oxides must undergo further conversion before they can enter high-performance NdFeB magnet manufacturing.

This metallisation stage remains one of the largest bottlenecks outside China. Building oxide, metal and alloy capacity in the same region could therefore give Europe a stronger base for permanent magnet production.

Recycling and Automotive Offtake Strengthen Commercial Case

Carester adds both recycling capability and long-term customer demand to the platform. Its Caremag project is designed to recycle 2,000 t/yr of permanent magnets and refine 5,000 t/yr of mining concentrate.

That combination gives the project access to both secondary and primary feedstock. Recycling can improve supply resilience, while mined concentrate provides additional volume for larger-scale production.

Carester also has a 10-year supply agreement with Stellantis covering more than 3,400t of neodymium, praseodymium, dysprosium and terbium oxides. This gives the European rare earth chain a direct connection to automotive demand.

USAR and InfraVia Capital Partners are also considering minority investments in Carester. Under the current term sheet, each could hold a 12.5% equity interest.

This structure combines technology, industrial customers, private capital and government support. That mix is increasingly necessary because rare earth projects face high capital costs, difficult qualification requirements and competition from established Chinese producers.

The strategic goal is larger than any single plant. France is becoming a hub where separation, recycling, metallisation, alloying and magnet production could increasingly operate within one regional ecosystem.

The Metalnomist Commentary

USAR’s French expansion shows that rare earth diversification is moving toward industrial clustering rather than isolated projects. Europe’s real breakthrough will come when recycled and mined feedstock can move continuously from oxide to metal, alloy and qualified magnet inside the region.

Rio Tinto AP60 Expansion Lifts Quebec Low-Carbon Aluminium Capacity

Rio tinto

Rio Tinto AP60 expansion will add 160,000 t/yr of aluminium capacity at the company’s Quebec smelter, strengthening Canada’s position as a major source of lower-emissions metal. The $1.5bn project began start-up in March and is expected to be completed by the end of 2026.

Rio Tinto AP60 expansion will lift the smelter’s nameplate capacity to 220,000 t/yr. The additional metal will target transportation, construction, electrical and consumer goods markets.

Rio Tinto AP60 expansion is strategically important because aluminium buyers are increasingly comparing suppliers on carbon intensity as well as price and availability. Quebec’s power system gives Rio Tinto a strong base for producing lower-emissions primary metal.

The company is also developing recycling and new smelting technology at the Arvida complex, creating a broader platform that combines primary production, secondary aluminium and future low-emission electrolysis.

AP60 Capacity Supports North American Aluminium Supply

The additional AP60 capacity will partly offset the closure of older potlines scheduled for June. This allows Rio Tinto to modernise its production base while maintaining regional supply.

Replacing older capacity with newer smelting technology can improve energy efficiency, productivity and emissions performance. It also supports long-term competitiveness in markets where customers are under pressure to reduce supply-chain carbon.

Transportation is an important demand sector because automakers continue to use aluminium for lightweighting. Electrical applications are also becoming more significant as grids, renewable projects and electrification expand.

Construction and consumer goods provide additional demand diversification. This reduces dependence on any single end market and strengthens the commercial case for higher-capacity production.

The expansion also supports North American supply security. Additional Canadian output gives US and regional manufacturers access to primary aluminium from an established trade partner.

Recycling and Elysis Add a Second Decarbonisation Route

Rio Tinto plans an aluminium recycling centre at the same Arvida complex. This adds secondary metal capability alongside primary smelting.

The combination is important because future aluminium supply will increasingly depend on blending primary and recycled metal. Primary production provides chemistry control and volume, while recycling lowers energy use and embedded emissions.

Canada is also supporting a separate Quebec demonstration plant for Elysis aluminium electrolysis technology with $100mn in government funding.

Elysis was developed with Alcoa and is designed to eliminate direct greenhouse gas emissions from the conventional aluminium smelting process. If successfully commercialised, the technology could materially change the emissions profile of primary aluminium.

The three elements — AP60 expansion, recycling and Elysis — show a broader industrial strategy. Rio Tinto is not simply increasing aluminium output; it is building a more flexible and lower-carbon production system.

That matters as customers increasingly demand traceable aluminium with lower emissions intensity. Producers able to combine scale, renewable power, recycling and advanced smelting technology could gain a stronger competitive position.

The Metalnomist Commentary

Rio Tinto’s Quebec strategy shows where aluminium competition is heading: more capacity, more recycling and lower smelting emissions. The advantage will increasingly belong to producers that can deliver both physical metal and credible carbon reduction.

Derichebourg Recycling Results Rise on Strong Non-Ferrous Demand

Derichebourg

Derichebourg recycling results strengthened in the first half of its 2025-26 financial year as higher non-ferrous metal volumes and prices lifted profitability. The French recycling group reported Ebitda of €177.8mn for October-March, up almost 10% from a year earlier.

Derichebourg recycling results also benefited from rising copper and aluminium volumes. The company expects similar performance in the April-September second half, supported by firm non-ferrous demand and improving conditions for ferrous scrap.

Derichebourg recycling results highlight a broader shift in Europe. Scrap is becoming more strategically valuable as steelmakers respond to CBAM, new trade measures and pressure to reduce carbon intensity.

Full-year Ebitda is expected at €350mn-370mn. The company’s share price also moved above €10 following the results announcement, from around €9.50 previously.

Copper and Aluminium Lift Non-Ferrous Performance

Derichebourg sold 357,100t of non-ferrous metals during the first half, up 4.4% from a year earlier. Segment revenue increased by almost 20% to €1bn as average non-ferrous prices rose by nearly 15%.

Copper delivered the strongest volume increase, with sales rising by 17%. Aluminium volumes excluding ingots increased by 10%.

These gains show continued demand for recycled metals tied to electrification, infrastructure and industrial manufacturing. Copper scrap is particularly important as buyers look for additional metal units outside constrained primary mine supply.

Aluminium recycling also benefits from tighter sustainability requirements. Secondary aluminium requires significantly less energy than primary production and can help manufacturers lower embedded carbon.

But automotive weakness affected some product categories. Aluminium ingot sales fell by 15%, while lead volumes declined by 4%.

This divergence shows that scrap demand depends heavily on end-use exposure. Copper and processed aluminium benefited from broader industrial demand, while automotive-linked products remained under pressure.

For recyclers, the value proposition is becoming stronger. Industrial customers increasingly need not only scrap availability, but consistent chemistry, traceability and reliable processing.

CBAM and Steel Trade Measures Strengthen Scrap Outlook

Derichebourg’s ferrous scrap revenue fell by 5% to €649.9mn because weaker average prices offset higher sales volumes. Ferrous scrap shipments still increased by 2.2% to 2.13mn t.

European mills increased scrap purchasing ahead of the Carbon Border Adjustment Mechanism entering force in January. Some steelmakers have shifted toward European feedstock to avoid complex CBAM calculations and uncertainty over import-related costs.

This creates a structural advantage for regional scrap suppliers. As carbon becomes part of steel procurement decisions, recycled feedstock can support lower-emission electric arc furnace production and reduce exposure to imported raw materials.

Derichebourg also expects new EU steel quotas and customs duties introduced in July to support ferrous scrap demand. These measures could encourage more regional production and strengthen demand for domestically sourced scrap.

Turkey’s higher steel output has provided additional support because the country remains a major buyer in the international scrap market.

Derichebourg is also expanding its geographic reach through the planned acquisition of Scholz Recycling. Scholz operates 180 sites, including joint ventures, across Germany, the Czech Republic, Poland, Slovenia, Austria and Romania.

The transaction is expected to close in the second half of 2026. It will significantly strengthen Derichebourg’s footprint in eastern Europe and expand access to scrap collection networks.

The Metalnomist Commentary

European scrap is becoming an industrial resource rather than simply a recycling product. CBAM, trade protection and stronger demand for low-carbon metals are increasing the strategic value of large collection and processing networks.

Brazil Critical Minerals Industry Needs Government Support to Move Downstream

Brazil, Critical Minerals

Brazil critical minerals industry development will depend on stronger government support, infrastructure and long-term capital if the country wants to move beyond raw material extraction. Industry executives at the Energy Summit in Rio de Janeiro argued that mineral wealth alone will not create competitive processing and manufacturing supply chains.

Brazil critical minerals industry has substantial geological potential, but projects face gaps in logistics, technology, processing capacity and financing. Predictable legal and regulatory frameworks will therefore be essential to attract investment with mine-development timelines measured in decades.

Brazil has recently strengthened its national critical minerals framework, with policy focused on domestic processing, transformation and higher-value production rather than exports of raw materials alone.

The industrial opportunity extends beyond individual minerals. Companies can improve project economics by recovering multiple metals and valuable by-products from existing mining and processing streams.

Renewable Power Could Give Brazil a Processing Advantage

Brazil does not need to replicate China’s critical minerals model to become competitive. Its advantage could come from combining mineral resources with abundant renewable electricity and water resources to build a lower-carbon processing base.

This matters because refining and mineral processing are often energy-intensive. Access to competitive renewable power can reduce operating costs and lower the embedded carbon of finished materials.

That advantage could become increasingly valuable as automotive, battery, aerospace and industrial customers demand more traceable and lower-carbon feedstock.

Brazil also needs to capture more value between the mine and final customer. Beneficiation, refining, recycling and advanced materials production create significantly more industrial value than exporting ore or concentrate alone.

Government support can help close the financing gap during this transition. Critical mineral projects typically require large upfront capital commitments and long development periods before generating cash.

The challenge is therefore not simply identifying deposits. Brazil needs infrastructure, technology transfer, skilled labour and stable rules that encourage companies to build processing capacity domestically.

Copper Investment Shows Scale of Industrial Opportunity

Copper illustrates both Brazil’s opportunity and the broader global supply challenge. Electrification, grids, renewable energy, energy storage and artificial intelligence infrastructure are increasing the strategic importance of the metal.

Major new discoveries remain difficult, while existing mines are often facing declining grades and higher development costs. This strengthens the value of large established mineral districts that can support expansions and new processing capacity.

Vale Base Metals is positioning Carajas as one of its main copper growth platforms. The company has outlined multi-billion-dollar copper investment in the region, including $3.5bn of planned spending between 2026 and 2030 alone.

Vale is also pursuing more automated mining technologies and hybrid extraction systems, including electric equipment. These investments could reduce operating emissions while improving productivity.

Copper recovery remains challenging because ore contains relatively small amounts of payable metal compared with total material moved. That makes efficiency, energy costs and by-product recovery increasingly important to project economics.

Brazil’s wider critical minerals strategy will face the same test. Resource scale provides the opportunity, but competitiveness will depend on whether the country can convert geology into processed materials and reliable industrial supply.

The Metalnomist Commentary

Brazil has the resources and renewable power to become more than a mineral exporter, but geology alone will not build a critical materials industry. The decisive step is using policy and capital to pull processing, technology and downstream manufacturing into the country.

EGA Al-Taweelah Recycling Plant Expands Low-Carbon Aluminium Capacity

EGA

EGA Al-Taweelah recycling plant has started operations in Abu Dhabi, adding 185,000 t/yr of low-carbon recycled aluminium capacity to Emirates Global Aluminium’s growing secondary metals platform.

EGA Al-Taweelah recycling plant will process both pre-consumer factory scrap and post-consumer aluminium scrap. The project strengthens EGA’s ability to supply customers seeking lower-carbon metal and higher recycled content.

EGA Al-Taweelah recycling plant also marks a recovery milestone after an Iranian missile struck the site on 28 March and delayed completion. Recycled cast metal production resumed in early May, with full ramp-up expected to take up to six months.

The pace of expansion will depend partly on scrap availability, highlighting how access to suitable recycled feedstock is becoming increasingly important to aluminium producers.

Scrap Supply Becomes Critical to EGA’s Ramp-Up

Construction of the Al-Taweelah recycling facility began in late 2023, and EGA charged its first melting furnace in January. Full completion had originally been targeted by the end of the first quarter.

The March missile strike disrupted that schedule and injured several employees. The restart of recycled cast metal production in May allowed EGA to resume the project’s commercial ramp-up.

The 185,000 t/yr facility gives EGA another route to reduce the carbon intensity of its product mix. Secondary aluminium requires significantly less energy than producing primary metal from alumina, making recycled units increasingly attractive to automotive, packaging and industrial customers.

However, scrap availability will determine how quickly the plant reaches nameplate output. Competition for clean pre-consumer and post-consumer aluminium scrap is rising as more producers invest in recycled-content products.

That makes collection, sorting, alloy control and long-term scrap sourcing increasingly important parts of aluminium competitiveness.

EGA Builds Global Secondary Aluminium Network

The Abu Dhabi project is part of a broader international recycling strategy. EGA has been expanding secondary aluminium capacity across Europe and North America through acquisitions and organic investment.

The company acquired German recycler Leichtmetalle in 2024 and later announced a major expansion that will increase the facility’s capacity more than sixfold.

EGA also bought a majority stake in US secondary aluminium smelter Spectro Alloys in 2024. Two subsequent expansions are expected to lift the plant’s capacity to more than 200,000 t/yr of secondary aluminium ingots and billets, from 110,000 t/yr previously.

In April, EGA announced the acquisition of an 80% stake in Italian aluminium recycler Eco Green, further extending its European recycling network.

The strategy gives EGA access to scrap pools closer to major customers while reducing reliance on primary aluminium growth alone. It also allows the company to offer a broader range of low-carbon products across different regions.

For the aluminium market, EGA’s expansion reinforces a wider structural shift. Recycling capacity is becoming a core strategic asset as customers demand lower embedded emissions and governments push for more circular material use.

The Metalnomist Commentary

EGA is turning recycling into a second growth platform alongside primary aluminium. The strategic constraint will increasingly be access to clean, traceable scrap rather than melting capacity itself.

China Critical Mineral Export Controls Tighten With New Enforcement Rules

China, Critical mineral

China critical mineral export controls are becoming more stringent as Beijing introduces new mechanisms to identify violations, prevent circumvention and strengthen oversight of strategic mineral shipments. The latest reporting framework takes effect on 1 July 2026 and specifically targets violations involving strategic mineral dual-use items.

China critical mineral export controls increasingly affect more than exporters themselves. Traders, processors, freight companies, overseas customers and intermediaries may need stronger documentation on product classification, end users, licensing and shipment routes as enforcement becomes more detailed.

China critical mineral export controls are also being reinforced by a separate supply-chain security investigation framework. The Ministry of Commerce can investigate foreign measures or commercial actions that it determines may damage China's industrial and supply-chain security.

The combined measures reinforce Beijing's use of regulatory oversight across critical mineral supply chains. For international buyers, compliance risk is becoming increasingly important alongside physical availability and price.

Circumvention and Third-Country Routing Face Greater Scrutiny

The new export-control reporting framework encourages organisations and individuals to report suspected violations. These include exports without licences, shipments outside approved licence conditions and exports of prohibited strategic mineral dual-use items.

The rules also explicitly address efforts to circumvent controls. They cover practices such as modifying or splitting controlled products into parts or components to avoid licensing requirements.

This is particularly important for complex industrial supply chains. Critical mineral products can move through multiple processors, traders and jurisdictions before reaching a final manufacturer.

China is therefore increasing pressure on companies to prove not only what they are exporting, but also where the material ultimately goes and how it will be used.

Authorities may provide rewards for verified reports of violations. Companies that identify potential non-compliance themselves are also encouraged to report voluntarily, with self-reporting potentially considered when penalties are determined.

The compliance burden will be especially significant for materials used in both civilian and defence applications. Rare earths, gallium, germanium, tungsten and antimony all have important roles in advanced electronics, aerospace, defence, semiconductors and industrial manufacturing.

Supply-Chain Security Rules Add Another Policy Layer

China's new supply-chain security investigation rules give the Ministry of Commerce authority to investigate certain foreign restrictions or discriminatory actions affecting Chinese industrial supply chains. The framework allows investigations into measures by foreign governments, organisations and individuals that may cause material harm or threats to China's supply-chain security.

The rules provide for investigations, information collection and other review procedures. Depending on findings, authorities may apply measures affecting trade or other economic activity.

This policy arrives alongside tighter entity-specific export controls. On 22 June, China added 10 US entities to its export control restricted list, including MP Materials and USA Rare Earth, prohibiting exports of dual-use items to those companies except through approved exceptions.

The significance for global critical mineral markets is clear. Supply availability is increasingly determined not only by production capacity, but also by licences, end-use approvals, destination risk and geopolitical relations.

This raises the value of alternative processing and recycling capacity outside China. Companies that rely on Chinese-origin rare earths or other strategic minerals will need stronger compliance systems and more diversified supply strategies.

The Metalnomist Commentary

China is turning critical mineral exports into a more closely monitored strategic supply chain rather than a conventional commodity trade. For buyers, the emerging risk is not simply whether material exists, but whether it can legally and reliably move through the entire chain.

US Offshore Critical Minerals Review Opens Virginia Seabed Mining Path

Bureau of Ocean Energy Management

US offshore critical minerals development has moved a step forward after the Bureau of Ocean Energy Management opened a request for information and interest covering a potential mineral lease area off Virginia. The review follows an unsolicited proposal from Odyssey Marine Exploration.

US offshore critical minerals activity could target heavy mineral sands, rare earth elements and phosphates across an approximately 1.8mn acre area off the Delmarva peninsula. The proposed zone covers about 7,160 km².

US offshore critical minerals policy is gaining strategic importance as Washington looks for new domestic sources of materials used in defence, electronics, energy and advanced manufacturing. However, the federal notice does not mean BOEM has approved a lease or commercial development.

Responses to the RFI are due by 23 July. The process will help determine industry interest, resource potential and whether the area should move toward a formal leasing stage.

Virginia Seabed Proposal Targets Rare Earths and Mineral Sands

Odyssey Marine Exploration submitted the original lease request in November. The company wants access to offshore mineral resources that could include rare earth-bearing heavy mineral sands and phosphate deposits.

Heavy mineral sands can contain several strategically important materials, depending on geology and mineral composition. Rare earth-bearing minerals are particularly important because the US is trying to reduce dependence on concentrated foreign processing and supply.

Phosphate resources could also add strategic value because phosphorus supports fertilizer production and food security. A multi-mineral offshore resource could therefore attract interest beyond conventional rare earth markets.

But commercial seabed mining remains technically and environmentally complex. Resource definition, extraction methods, permitting, marine ecosystems, processing routes and project economics will all determine whether offshore deposits can become viable supply.

The scale of the proposed area also means exploration would need to identify where commercially meaningful mineral concentrations actually exist. A large lease footprint alone does not guarantee an economic project.

Federal Policy Pushes Seabed Minerals Into Supply Strategy

The BOEM review follows a wider US policy shift toward seabed critical minerals. President Donald Trump signed an executive order in April 2025 aimed at accelerating seabed mineral exploration and commercial recovery permitting.

That policy reflects growing concern over critical mineral security. Washington is looking at domestic mines, recycling, processing, strategic reserves and now offshore resources as parallel supply options.

For the metals market, the significance is still long term. Even if a lease is eventually offered, exploration, permitting, environmental review and development could take years before material reaches commercial markets.

The strategic value lies in optionality. Offshore resources could eventually supplement terrestrial mining and provide another domestic source of rare earths and other critical minerals.

However, the project must still prove that seabed extraction can meet environmental, regulatory and cost requirements. That will be central to whether offshore mineral development becomes a meaningful part of US critical materials policy.

The Metalnomist Commentary

The Virginia review shows that the US is widening its critical minerals strategy from land-based mining to the seabed. The opportunity is significant, but offshore resources will only matter if geology, environmental approval and processing economics can align.

UK Critical Minerals Investment Targets Magnets, Processing and Demand Aggregation

UK, Chris McDonald

UK critical minerals investment will receive a £50mn funding boost as the government tries to strengthen domestic supply chains for rare earth magnets, extraction, processing and recycling. Industry minister Chris McDonald said the funding will be distributed across three priority areas.

UK critical minerals investment is becoming more important as advanced manufacturing, defence, clean energy and electric vehicles increase demand for secure material supply. The new funding is part of the UK’s wider critical minerals strategy.

UK critical minerals investment will include £20mn for a rare earth magnet manufacturing hub, £25mn for a critical minerals accelerator and £5mn for a demand-pooling platform across industries.

The package follows £200mn in earlier support from the National Wealth Fund, Drive35 and the UK Shared Prosperity Fund. However, the scale of the new grant remains modest compared with the capital required to build full-scale critical minerals production.

Magnet Manufacturing Hub Targets Skills and Scale-Up

The largest single allocation will support a hub for rare earth magnet manufacturing. The hub will focus on developing, testing and scaling up production capability.

This matters because rare earth magnets are technically difficult to produce. Manufacturing requires precise control over materials, alloying, powder processing, sintering, coating and final performance.

The hub will also support skills and training. That is strategically important because magnet supply chains require specialised engineering knowledge, not only raw material access.

Rare earth magnets are used in electric motors, wind turbines, defence systems, robotics, aerospace equipment and advanced electronics. Domestic capability could reduce UK exposure to concentrated overseas supply chains.

The funding also aligns with recent UK interest in rare earth recycling. McDonald visited recyclers Seloxium and DEScycle at the Wilton Centre in Teesside, highlighting the role of industrial waste recovery in future supply.

Seloxium previously received a £2mn Innovate UK grant to scale rare earth recovery from industrial waste. That shows recycling is becoming an active part of UK critical minerals policy.

Accelerator and Demand Platform Address Financing Gap

The £25mn critical minerals accelerator will support extraction, processing and recycling projects. This could help early-stage companies move technologies and projects closer to commercial deployment.

Processing is especially important. Critical minerals supply security depends on refining, separation, recycling and conversion capacity, not only mining.

The £5mn demand platform has a different purpose. It aims to pool critical mineral demand across industries, support partnerships and make investment easier.

This is a useful policy tool because many critical mineral markets are too small or uncertain to attract capital without clear buyers. Demand aggregation can help turn scattered industrial needs into bankable market signals.

However, the funding may not be enough on its own. Even small critical minerals projects often require more than £100mn in capital expenditure to reach full-scale production.

The UK therefore needs to use the £50mn as catalytic capital. Its value will depend on whether it unlocks private investment, customer commitments and larger financing packages.

The strategy is directionally strong. But execution will require scale, industrial coordination and long-term procurement support.

The Metalnomist Commentary

The UK’s £50mn package is useful because it targets magnets, processing and demand creation together. But the funding is still small, so the real test is whether it can mobilise larger capital and build commercially qualified domestic supply chains.