ATI Nickel Superalloy Capacity Expansion Targets Jet Engine Growth

VIM(Vacuum Induction Furnace)

ATI nickel superalloy capacity expansion is moving into a new phase with another melting investment in North Carolina. ATI plans to add a new VIM furnace at its Bakers South facility in Monroe. The company expects the unit to start in the second half of 2027. As a result, ATI nickel superalloy capacity expansion is becoming more directly tied to engine OEM growth plans.

The new furnace will be the fifth VIM asset in ATI’s nickel portfolio. The company said customer qualification should follow within six to nine months after start-up. ATI also indicated the furnace could lift capacity by roughly 8-10pc, or about 9,000 tonnes per year. Therefore, ATI nickel superalloy capacity expansion could add meaningful new supply to a tight aerospace materials chain.

This investment matters because nickel-based superalloys remain critical to modern jet engines. These materials are used in compressor discs and turbine blades in the hot section. They are valued for maintaining strength and corrosion resistance under extreme temperatures. Consequently, a new VIM furnace for nickel superalloys is more than a plant upgrade. It is a strategic aerospace capacity addition.

VIM Furnace for Nickel Superalloys Supports OEM and Aftermarket Demand

The VIM furnace for nickel superalloys is designed to support rising demand from both original equipment and the aftermarket. Major engine makers have already signaled higher delivery plans for 2026. At the same time, spare parts and overhaul demand remain strong across global fleets. Therefore, ATI is expanding into a market where both new-build and service demand are pulling at the same time.

ATI’s product mix strengthens the value of this capacity. The company produces six of the seven nickel-based superalloys used in latest- and next-generation jet engines. That includes proprietary grades such as 718+ and 720. As a result, the new furnace will support materials that sit deep inside high-value aerospace programs.

The contract structure also reduces some commercial risk. ATI said 80pc of the added capacity has already been secured under long-term agreements. Part of the expansion will also be funded by customers. Meanwhile, customer funding should help accelerate qualification and approval timelines. That means the project is entering service with stronger commercial visibility than a typical speculative capacity build.

Aerospace Materials Supply Chain Still Needs More Melt Capacity

Aerospace materials supply chain pressure helps explain why ATI is investing now. Aircraft production rates are rising at Boeing and Airbus across both narrowbody and widebody programs. Engine suppliers such as GE Aerospace and Pratt & Whitney must support those ramp-ups with more parts and more materials. Therefore, melt capacity for superalloys is becoming a real bottleneck layer in the broader aerospace chain.

ATI also noted that exact run rates remain difficult to define. Melt speeds and lead times vary depending on the superalloy grade being produced. That makes generalized capacity estimates less precise than in commodity metals. However, the broader direction is clear. ATI nickel superalloy capacity expansion is aimed at supporting a market where availability matters as much as metallurgy.

This is also part of a wider Monroe campus buildout. ATI previously announced additional remelting equipment at the same site. The new VIM furnace adds another layer of upstream capability to that strategy. As a result, the company is building a more complete production base rather than adding one isolated unit.

The Metalnomist Commentary

This project matters because aerospace growth now depends on specialty melt capacity, not just final assembly rates. ATI is expanding where the bottleneck is hardest to replace quickly. If engine demand stays strong, this furnace could become one of the more important quiet additions in the nickel superalloy market.

High-temperature metals and nickel rally reshape global superalloy cost structure

High-temperature metals

Surging demand and constrained supply mean the high-temperature metals and nickel rally is fundamentally reshaping superalloy cost structures. Aircraft engine and industrial gas turbine manufacturers are ordering at record levels just as key refractory metals move sharply higher. As a result, the high-temperature metals and nickel rally is squeezing melters that sit between volatile raw material markets and long-dated OEM contracts.

Rhenium-led cost shock hits second-generation superalloys

Rhenium has become the epicentre of the high-temperature metals and nickel rally despite representing only a small share of alloy weight. Intrinsic values for benchmark single-crystal alloys such as Rene N5 and CMSX-4 have jumped by more than 80pc in a year. This surge reflects rhenium’s critical role in creep strength and fatigue resistance in high-pressure turbine blades. However, rhenium remains a by-product of molybdenum from copper operations, which severely limits flexible supply. Other key elements such as tantalum and hafnium have also rallied, yet their relative contribution to alloy cost is still overshadowed by rhenium in second-generation chemistries.

Producers now face a difficult trade-off between performance and affordability as the high-temperature metals and nickel rally reopens the debate over alloy design. Second-generation alloys with roughly 3pc rhenium, including Rene N5 and CMSX-4, remain the market workhorses because they balance durability with cost. Meanwhile, third-generation alloys with higher rhenium contents remain less widely adopted, as OEMs hesitate to qualify materials whose economics depend on extreme minor-metal prices.

Tight turbine capacity, nickel rally and scrap strategy

Industrial gas turbine demand is amplifying the impact of the high-temperature metals and nickel rally on alloy buyers. MAR-M 247, a key alloy for IGT blisk castings, has seen calculated costs climb alongside hafnium and other minor metals. Lead times for major OEMs such as GE Vernova, Siemens Energy and Mitsubishi Heavy Industries reportedly stretch to around seven years. Commercial aircraft backlogs exceed a decade of production, leaving melt shops reluctant to miss their place in already strained queues.

Nickel’s rally adds a second layer of inflation even in lower rhenium or rhenium-free alloys. Benchmark nickel prices have jumped around 25pc since mid-December, supported by investor flows and policy risk premiums despite an oversupplied refined market. Nickel-based alloys only account for roughly 6pc of nickel demand, yet the price spike is clearly visible in less temperature-critical grades such as Inconel 718. Intrinsic values for Inconel 718 have risen on the back of nickel and niobium, lifting input costs for rings, casings and sheet parts across aerospace and energy applications.

To defend margins, melters are pushing scrap-based strategies as far as OEM specifications allow. High revert utilisation, sometimes up to 70pc of a melt, can partially shield producers from spot price volatility in primary metals. However, strict quality standards often restrict the use of externally sourced scrap, with some OEMs mandating internal revert only. Many melt shops therefore work “hand-to-mouth”, hesitant to lock in long-term tonnages at record prices while suppliers worry about replacing committed units in tightening markets.

The Metalnomist Commentary

The high-temperature metals and nickel rally is exposing how concentrated and opaque minor-metal supply chains remain, particularly for rhenium and tungsten. For investors and OEMs, the key strategic levers will be higher scrap utilisation, deeper recycling partnerships and more flexible alloy qualification pathways. Those who move fastest on revert, substitution and long-term offtakes will be best placed to secure turbine-grade material through the next decade of aerospace and power-generation growth.

Safran Forging Press Expansion Strengthens France’s Jet Engine Supply Chain

Safran, Forging

Safran forging press investment in Gennevilliers will expand the French engine manufacturer’s capacity to produce large, high-performance aerospace components. The company plans to install a 30,000t hydraulic press that is expected to become operational in 2029.

The €150mn press will be able to produce 14,000 parts a year at full capacity. It will support higher output of the CFM International LEAP engine, which Safran jointly manufactures with GE Aerospace.

Safran forging press expansion also supports military engine supply chains. The new equipment will help produce parts for engines used in the Rafale, Mirage and A400M aircraft, as well as high-thrust GE engines where Safran supplies high-pressure and low-pressure compressors.

The investment shows how aerospace manufacturers are preparing for sustained engine demand. Airbus and Boeing are both trying to raise production rates for the A320neo Family and 737 MAX, increasing pressure on qualified forging, casting, machining and superalloy supply chains.

High-Tonnage Forging Capacity Targets Future Engine Programmes

The new Safran forging press will give the company more capability to manufacture large engine parts. This is important because next-generation civil aircraft engines are expected to require larger, more complex and more demanding forged components.

Large hydraulic presses are strategic assets in aerospace manufacturing. They allow producers to shape high-strength alloys under controlled conditions, improving structural integrity, fatigue performance and reliability in critical rotating and static engine parts.

The press will also reduce dependence on constrained external forging capacity. Aerospace supply chains have faced recurring bottlenecks in qualified forgings, castings, titanium products, nickel alloy parts and precision-machined components.

For Safran, adding high-tonnage forging capacity supports both current programmes and future engine platforms. The investment strengthens control over key manufacturing steps at a time when engine makers are trying to improve delivery reliability.

Nickel Superalloys and Titanium Remain Critical Engine Materials

Safran’s investment has direct implications for high-performance metals. Nickel-based superalloys are essential for turbine forgings because they retain strength, creep resistance and oxidation resistance at extreme temperatures.

These materials are used in the hottest sections of jet engines, where ordinary alloys cannot survive. As engine efficiency targets rise, demand for advanced nickel superalloy processing remains strategically important.

Titanium is also critical in lower-temperature engine sections, including low-pressure compressors. Its high strength-to-weight ratio and corrosion resistance make it essential for aerospace systems where weight reduction and mechanical performance matter together.

The Gennevilliers project follows Safran’s broader capacity buildout. The company is investing in a new turbine casting facility in La Janais, Rennes, scheduled for commissioning in 2027, and has committed €70mn to expand complex rotating part capacity at Le Creusot by 2029.

Together, these investments point to a coordinated engine materials strategy. Safran is strengthening forging, casting and rotating component capacity to support civil and military aerospace demand through the next production cycle.

The Metalnomist Commentary

Safran’s 30,000t press shows that aerospace competitiveness increasingly depends on control of qualified materials processing capacity. Nickel superalloy and titanium supply will remain critical as engine makers race to meet higher build rates without sacrificing reliability.

GLE Alloys Stainless Nickel Yard to Open in Pennsylvania in May

GLE Scrap Metal

GLE Alloys stainless nickel yard development will give GLE Scrap Metal a dedicated platform for stainless steel and nickel processing in Pennsylvania. The full-service recycler plans to open the new non-ferrous yard in May through its newly created subsidiary, GLE Alloys.

The GLE Alloys stainless nickel yard is being built on 10 acres along the Monongahela River in Braddock. The site will include a dock for bulk barge loading, rail access, and about 80,000ft² of warehouse space.

The GLE Alloys stainless nickel yard strengthens GLE’s position in higher-value alloy scrap. Stainless steel and nickel scrap require more specialized sorting, handling, chemistry control, and logistics than ordinary ferrous scrap, making the new facility strategically relevant for mills, processors, and alloy consumers.

River, Rail and Warehouse Access Strengthen Scrap Logistics

The Braddock site’s logistics infrastructure is central to the project’s value. Barge loading on the Monongahela River gives GLE Alloys access to bulk movement, while rail access improves shipment flexibility for larger volumes.

The warehouse space also supports better material control. Stainless and nickel scrap often need segregation by grade, alloy family, and chemistry before shipment to consumers.

Braddock’s industrial location adds further relevance. The area is also home to US Steel’s Mon Valley blast furnace operations, placing GLE Alloys inside a long-established metals corridor with existing industrial infrastructure.

GLE Expands Beyond Regional Recycling Into Alloy Processing

GLE Scrap Metal already operates six recycling facilities in Florida and Michigan. The company also runs a copper wire processing plant in Ocoee, Florida, and has an aluminum wire and URD wire processing facility through sister company Mallin Companies in Kansas City.

The creation of GLE Alloys shows a more focused move into specialty scrap. Stainless steel and nickel-bearing materials are tied to stainless mills, superalloy producers, foundries, aerospace supply chains, energy equipment, and industrial manufacturing.

GLE has appointed James Merrills as commercial director and Tom Kaikis as operations director for the new subsidiary. Their stainless and nickel experience should support customer development, material sourcing, and operational discipline as the facility ramps up.

The Metalnomist Commentary

GLE’s Braddock investment shows that alloy scrap is becoming a more specialized and logistics-driven business. As nickel and stainless supply chains look for reliable secondary feedstock, yards with chemistry control, storage capacity, and multimodal transport will gain strategic value.

ATI Aerospace Machining Expansion Targets Jet Engine Supply Bottlenecks

ATI Alloys

ATI aerospace machining expansion has moved downstream with a new 200,000ft² facility in Chihuahua, Mexico, focused on machining, inspection and qualification of critical jet engine components. The site has been operational since April and marks ATI’s first manufacturing location in Mexico.

ATI aerospace machining expansion strengthens the US specialty alloys producer’s position beyond raw material and forging supply. Nearly half of the new plant is dedicated to machining forged components used in high-pressure engine sections, where nickel-based superalloys are essential because of extreme heat and mechanical loads.

ATI aerospace machining expansion also addresses a persistent aerospace constraint: qualified downstream capacity. Strong demand for new engines and spare parts has increased pressure not only on alloy and forging supply, but also on machining, nondestructive testing and final quality verification.

The Chihuahua location gives ATI access to an established aerospace manufacturing cluster, trained workers and nearby suppliers. Customer qualification is already under way for components serving both existing and next-generation engine platforms.

Nickel Superalloy Machining Becomes a Critical Engine Bottleneck

High-pressure sections of jet engines operate under some of the most demanding conditions in industrial manufacturing. Components must withstand high temperatures, rotational stress, fatigue and repeated thermal cycling.

Nickel-based superalloys are therefore widely used in these engine sections because they retain strength and oxidation resistance at elevated temperatures. But producing the alloy is only one part of the supply chain.

Forged engine components require extensive precision machining before installation. Nickel superalloys are difficult to machine because of their high strength, work hardening and heat resistance, which increase tool wear and processing time.

That makes qualified machining capacity strategically important. Aerospace manufacturers cannot simply move parts to an unapproved supplier when capacity becomes tight because every process must meet strict customer and regulatory requirements.

ATI’s new facility therefore extends the company further into value-added processing. Instead of supplying only specialty alloy or forged material, it can provide more finished components closer to engine assembly.

The remainder of the Chihuahua plant is dedicated to inspection, including nondestructive testing and quality verification. These processes are critical because internal cracks, surface defects or dimensional deviations can make high-value engine components unusable.

Customer Qualification Could Deepen ATI’s Aerospace Integration

ATI said engine manufacturers and other customers are working aggressively to qualify the new facility. That suggests customers are actively looking for additional approved capacity to relieve bottlenecks.

The facility will process components for both legacy and next-generation engine models. This gives ATI exposure to two important demand streams: new aircraft production and the aftermarket replacement cycle.

Legacy engines generate recurring demand for spare components as fleets remain in service. At the same time, newer engine platforms require higher-performance materials and increasingly complex manufacturing routes.

This combination supports long-term demand for nickel superalloys, titanium and other specialty aerospace materials. But supply-chain performance increasingly depends on how quickly those materials can move through forging, machining, heat treatment, inspection and qualification.

ATI’s Mexico investment reflects this shift. Aerospace suppliers are moving closer to integrated component production as customers seek fewer bottlenecks between raw material and finished part.

Financial details and production capacity were not disclosed, so the immediate earnings impact remains unclear. But strategically, the site gives ATI a larger role in one of the highest-value sections of the aerospace materials chain.

The Metalnomist Commentary

ATI’s Chihuahua plant shows that aerospace shortages are moving downstream from alloy supply into machining and qualification. In jet engines, the competitive advantage increasingly belongs to suppliers that can control more of the path from superalloy to finished, approved component.

New Aluminum-Nickel Superalloy Promises 100% Hydrogen Combustion Engines

A groundbreaking superalloy, composed primarily of aluminum and nickel, has been developed by an engineering team at the University of Alberta. This innovative material is specifically designed for high-temperature applications, showcasing remarkable potential in advancing hydrogen combustion engines.

Referred to as a ‘complex concentrated alloy,’ this new superalloy is ideally suited for coating surfaces in gas turbines, power stations, vehicles, and airplane engines. Its introduction marks a significant advancement in material science.

In a paper published in the journal Materials Today, researchers detailed the alloy known as AlCrTiVNi5. This material exhibits exceptional thermomechanical properties, including high stability, low expansion, fracture tolerance, and an advantageous blend of strength and ductility. These characteristics make it particularly suitable for high-heat and high-pressure environments, such as those found in hydrogen engines.

Jing Liu, the senior author of the study, highlighted the alloy’s potential in a media statement. “If you would like to use a 100% hydrogen fuel combustion engine, the flame temperature is extremely high,” Liu explained. “Until now, none of the existing metallic coatings have been able to work in a 100% hydrogen combustion engine.”

Hydrogen combustion involves temperatures ranging from 600 to 1500 degrees Celsius, necessitating that all mechanical components resist both high heat and corrosion from steam. Presently, most hydrogen combustion engines in commercial use operate on a blend of fuels—such as natural gas and hydrogen or diesel and hydrogen. However, as industries increasingly adopt hydrogen as a primary fuel source, the need to prepare for ultra-high temperature conditions in fully hydrogen-fueled engines becomes imperative.

“As we move toward a 100% hydrogen combustion engine, we want to know which alloys can withstand the conditions. None of the existing ones did, but we learned valuable insights from these failures,” Liu noted.

The research team assessed the strengths and weaknesses of each existing commercially available alloy. Using theoretical simulations, they identified potential new combinations that might offer the desired strength and durability.

“We understand how things react when they heat up,” said Hao Zhang, co-author of the study. “So we use these simulations and calculations to understand how the interface between the matter and the environment changes if we change the composition.”

After identifying AlCrTiVNi5, the team subjected the new alloy to the same rigorous high-temperature tests used on existing alloys. While all existing alloys failed after 24 hours or less in the hot, corrosive environment, the new complex concentrated alloy demonstrated remarkable resilience.

“We conducted our experiment in these corrosive environments for up to 100 hours at 900 degrees Celsius, and it survived. That’s a significant improvement,” Zhang stated.

Although the alloy shows great promise for withstanding the heat of a high-percentage hydrogen combustion engine, further studies are necessary before it can be widely adopted.

“This alloy outperforms anything else on the market right now,” Liu said. “It opens the door for new possibilities and will hopefully advance the Canadian hydrogen economy.”

Acquires ATI East Hartford Machining Operations

Barnes Aerospace

Barnes Aerospace acquires ATI East Hartford machining operations to deepen its engine-parts footprint. The deal strengthens access to titanium and nickel alloy machining and extends Barnes’ reach into defense programs. Barnes Aerospace acquires ATI East Hartford machining operations as part of a focused capacity build.

Deal expands engine machining capacity

Barnes Aerospace acquires ATI East Hartford machining operations to boost rotary disc capability. The 110,000ft² site machines discs for jet engines in titanium and nickel alloys. Proximity to Barnes East Granby plant enables faster turnarounds and shared quality systems. As a result, customers gain reduced logistics risk and tighter delivery control. ATI deemed the asset non-core within its broader capacity strategy.

Implications for titanium and nickel alloy supply chains

The acquisition tightens integration across titanium and nickel alloy value chains. Barnes can balance workloads between East Hartford and East Granby for military and commercial engines. Meanwhile, rotorcraft and defense programs benefit from localized machining depth. The move also supports OEMs managing schedule risk amid ongoing component bottlenecks. Suppliers should expect steadier demand for forgings and bar in premium grades.

Barnes positions for aftermarket and OEM growth with added critical-process capacity. Disc machining sits on the critical path for engine build rates and MRO. Therefore, incremental capacity can ease turnaround times and stabilize delivery cadence. Engine primes seeking reliable rotor hardware will likely welcome the added redundancy. The transaction aligns with industry efforts to derisk single-point suppliers.

The Metalnomist Commentary

This is a classic “closer to the engine” move that monetizes bottleneck processes. Expect firmer pull for titanium and nickel superalloy feedstocks tied to discs and forgings. If build rates improve into 2026, Barnes’ Connecticut footprint should capture higher-margin work.

Aircraft Engine MRO Bottlenecks Set to Lift Aerospace Superalloy Demand

IATA

Aircraft engine MRO bottlenecks are becoming a structural constraint for global aviation as durability problems, rapid fleet growth and limited spare parts increase maintenance demand. The International Air Transport Association says the industry must expand parts availability and repair capacity to protect long-term fleet resilience.

Aircraft engine MRO bottlenecks are particularly acute for Pratt & Whitney geared turbofan engines and CFM International LEAP engines. Premature component failures are shortening time on wing and forcing additional shop visits alongside scheduled maintenance.

Aircraft engine MRO bottlenecks also carry significant implications for specialty metals. Rising overhaul activity will increase consumption of nickel and cobalt superalloys, refractory metals and titanium used in high-pressure turbine, compressor and structural engine components.

The pressure is unlikely to disappear quickly. In-service LEAP and GTF fleets are expected to expand five- to sixfold between 2024 and 2040 as airlines replace older narrowbody aircraft with newer platforms.

Durability Problems Accelerate Engine Shop Visits

Pratt & Whitney’s powdered metal issue has been one of the largest recent disruptions. The problem affects high-pressure turbine and compressor disks in GTF engines and has required affected aircraft to undergo additional shop visits for component replacement.

Groundings of GTF-powered aircraft peaked at 648 units in March 2025, equal to 28% of the fleet. These aircraft remained unavailable while operators waited for maintenance slots and replacement parts.

CFM’s LEAP engines have faced separate durability challenges. Stage-1 high-pressure turbine blades have shown premature wear, particularly in hot and harsh operating environments.

These problems reduce engine time on wing. Airlines must therefore send engines to maintenance facilities earlier than planned, adding unscheduled work to an already growing base of routine overhauls.

The scale will increase significantly as newer engines dominate the global narrowbody fleet. Annual LEAP shop visits are expected to exceed 5,000 by 2040, while GTF shop visits could surpass 2,000.

Engine manufacturers are adding MRO capacity directly and through partners. However, new repair shops alone cannot solve the problem if replacement parts, forgings and qualified components remain constrained.

MRO Growth Strengthens Nickel, Cobalt and Titanium Demand

High-pressure engine components operate at extreme temperatures and mechanical loads. This makes nickel-based superalloys essential for turbine disks, blades and other hot-section components.

Cobalt and refractory elements also play important roles in advanced superalloy systems. Their ability to maintain strength and oxidation resistance under extreme conditions makes substitution difficult in many engine applications.

Titanium demand will also benefit from higher maintenance activity. Titanium alloys are widely used in compressor sections, fan systems and structural engine components because of their strength-to-weight ratio and corrosion resistance.

Limited-life high-pressure parts on mature engines typically require replacement after around 15,000-20,000 cycles. On a single-aisle aircraft, that can correspond to roughly five to seven years of operation.

The growing LEAP and GTF installed base therefore creates a predictable long-term materials cycle. Even if durability problems improve, fleet growth alone will generate substantially more engine overhaul demand.

The supply-chain challenge extends beyond raw metals. Engine makers need qualified forgings, castings, powder products, machined parts, heat treatment and nondestructive testing capacity.

For specialty metals suppliers, MRO demand can be particularly attractive because replacement parts require certified material and tightly controlled processing routes. Aerospace qualification barriers also limit how quickly new competitors can enter.

IATA is calling for better access to spare parts, stronger long-term supply agreements and industry-wide operating standards. Without those changes, maintenance capacity may continue to lag fleet growth.

The Metalnomist Commentary

Engine MRO is becoming one of the strongest long-term demand channels for aerospace superalloys and titanium. The real bottleneck will increasingly be qualified parts and processing capacity rather than raw metal availability alone.

Howmet Hampton fire briefly pauses output at aerospace castings site

Howmet Aerospace

The Howmet Hampton fire briefly disrupted output at a key aerospace castings site. The Howmet Hampton fire started in a ventilation area on Tuesday. Howmet evacuated the facility, contained the blaze, and restarted production shortly after. No workers reported injuries.

The Hampton operation supplies parts for aircraft engines and industrial gas turbines. The plant makes investment castings and seamless rolled rings from titanium, nickel, and superalloys. Therefore, even short interruptions can ripple through tight turbine component schedules.

What the incident signals for aerospace capacity

The incident highlights how single-site events can stress aerospace delivery timelines. Many turbine programs run with little buffer, especially for castings and rings. As a result, OEMs and tier-one suppliers track recovery pace and work-in-process closely.

Fast restarts reduce risk, but they still require strict quality revalidation. Howmet must confirm thermal stability, contamination controls, and tooling integrity before full-rate output. Meanwhile, customers may rebalance orders across qualified sites if lead times widen.

Why titanium and superalloy supply chains care

The Hampton site sits inside a materials chain that already faces long qualification cycles. Titanium and nickel superalloy components demand certified melts, traceability, and repeatable processes. Therefore, buyers prioritize suppliers with robust EHS systems and redundant capacity plans.

Ventilation events also spotlight housekeeping and dust-control disciplines in high-temperature operations. Producers can cut recurrence risk with predictive maintenance, sensor upgrades, and rapid-response drills. However, insurance and downtime costs still rise as aerospace rates climb.

The Metalnomist Commentary

This fire looks contained, but it reinforces why resilience matters more than headline capacity. As engine build rates rise, small disruptions can trigger expensive rescheduling across the chain. Companies that invest in redundancy and safety will win share in the next cycle.

BIR Conference Bangkok Recycling Industry signals Asia’s circular shift

2025 BIR(Bureau of International Recycling)

The BIR(Bureau of International Recycling) Conference Bangkok Recycling Industry gathered global stakeholders across the value chain. The forum covered ferrous, non-ferrous, and specialty metals in depth. The BIR Conference Bangkok Recycling Industry highlighted circular economy execution, not slogans. Therefore, participants focused on infrastructure, technology, and market standards. Meanwhile, BIR’s scale—1.5 million professionals and USD 160 billion—framed the agenda.

The BIR Conference Bangkok Recycling Industry underscored Asia-Pacific’s accelerating demand. Hosting in Bangkok reflected trade gravity tilting toward Asian hubs. As a result, discussions centered on capacity build-out and logistics reliability. Attendees examined traceability, quality assurance, and ESG disclosure. Moreover, members emphasized data for financing and cross-border compliance.

2025 BIR(Bureau of International Recycling)

Ferrous and non-ferrous flows anchor the circular backbone

Ferrous scrap now supplies over 30% of global steel output. EAF adoption increases scrap intensity and resilience. Therefore, ferrous scrap became a strategic raw material. Asia remains the largest import market for ferrous scrap. Korea, Japan, and Taiwan anchor steady tonnage. However, India’s fast-rising demand drew strong attention this year.

Non-ferrous recycling accelerates stainless steel’s circular economy. Over 70% of stainless production uses recycled feedstock today. Consequently, 300-series stainless scrap commands a nickel-driven premium. Copper, aluminum, and zinc recycling rates keep climbing. Meanwhile, EV batteries and e-waste create new metal pools. Processors target dismantling, black-mass recovery, and closed-loop contracts. As a result, service models expand beyond commodity trading.

2025 BIR(Bureau of International Recycling)

Specialty metals scale: Titanium and Nickel Superalloys

Specialty metals advanced from niche to priority. Titanium scrap offsets costly primary sponge and ingot. Proper sorting enables aircraft, reactor, and implant routes. Clean grades often trade at several thousand dollars per ton. Therefore, certification and segregation matter for aerospace and medical uses.

Nickel-based superalloy scrap rose with aerospace growth. Inconel and Hastelloy streams typically exceed 50% nickel. Refiners upgrade these into new superalloy melts. Moreover, chromium, molybdenum, and cobalt increase strategic value. As a result, secure collection and refining capacity became focal. Asia is emerging as the center for scale and skills.

The Metalnomist Commentary

BIR Bangkok confirmed recycling as core supply-chain strategy. Expect capital to target high-purity sorting, verified traceability, and melt capacity. Asian hubs that certify quality fastest will capture premium flows.

Aerolloy VAR titanium castings boost India’s aerospace supply chain

Aerolloy

Indian Aerolloy VAR titanium castings mark a major step in domestic aerospace materials capability. Aerolloy Technologies has commissioned a vacuum arc remelting (VAR) furnace at PTC’s Aerospace Precision Castings Plant in Lucknow. The Aerolloy VAR titanium castings will support aircraft engines, industrial gas turbines and other high-spec defence applications.

Aerolloy VAR titanium castings move India up the value chain

The new VAR furnace allows Aerolloy to melt and refine large titanium castings to demanding aerospace standards. This move reduces dependence on imported titanium components and strengthens India’s position in global engine supply chains. Crucially, Aerolloy VAR titanium castings provide near-net-shape parts, cutting machining time and lowering scrap rates.

Earlier this month, Aerolloy also brought a vacuum induction melting (VIM) furnace online for superalloy castings. Together, VIM and VAR create an integrated melt route from alloy production to critical rotating and structural parts. As a result, Aerolloy can offer titanium and superalloy castings with tighter metallurgical control and better consistency.

Capacity figures for the new furnaces are undisclosed, but the strategic impact is clear. India now fields a more complete suite of advanced melt technologies previously concentrated in North America, Europe and Japan. This enhances resilience for engine OEMs seeking diversified, multi-regional sources of titanium and nickel-based superalloy castings.

Safran LEAP engine contracts underline export potential

Commercial traction is already emerging around the new melt shop. In March, Aerolloy signed a long-term purchase order with Safran Aircraft Engines. The deal covers seven cast engine components for CFM International LEAP-1A and LEAP-1B engines.

The Safran contract builds on earlier qualification in 2023, when Aerolloy was approved to develop and supply cast parts. Therefore, the new Aerolloy VAR titanium castings capability is anchored by real engine programmes, not just speculative capacity. This alignment with LEAP engines, a high-volume narrowbody workhorse, signals meaningful export potential.

In parallel, India’s defence and industrial gas turbine markets stand to benefit from localised casting capability. Domestic programmes can now source critical titanium castings and superalloy components without relying solely on imports. Over time, this may encourage further investment in upstream titanium sponge, alloy ingots and recycling to support a full circular ecosystem.

The Metalnomist Commentary

India’s quiet build-out of VIM–VAR casting capacity is reshaping the global map for titanium and superalloy supply. Aerolloy’s progress shows how targeted investments, paired with anchor orders from OEMs like Safran, can rapidly elevate a new hub into the aerospace tier-one conversation. The next strategic question is how fast India can complement these furnaces with deeper raw material and recycling infrastructure.

Glencore Copper Production Rises as DRC Cobalt Quota Reshapes Output Priorities

Glencore

Glencore copper production rose sharply in the first quarter as higher grades at its African copper mines and stronger throughput at Antamina lifted output. The Switzerland-based trading and mining group produced 199,600t of copper, up 19% from a year earlier.

Glencore copper production growth contrasts with a steep fall in cobalt output. Own-sourced cobalt production dropped by 39% to 5,800t, mainly because the Democratic Republic of Congo’s export quota system has changed how producers manage shipments and mine planning.

Glencore copper production is now becoming more important inside its DRC asset base because cobalt export limits have made copper the clearer operating priority. This shift shows how state policy can directly reshape output behaviour in multi-metal mining systems.

The company maintained full-year production guidance for copper, nickel and zinc, despite weaker output in several other metals. Copper guidance remains at 810,000-870,000t for the year.

DRC Quota System Pushes Cobalt Lower

The sharp fall in cobalt output reflects the DRC’s quota system, introduced after the country moved away from its earlier export ban framework. The system capped shipments and set annual limits for 2026-27, with an additional strategic pool.

For Glencore, the practical effect is clear. Its DRC assets are now prioritising copper production because copper can move through the market with fewer quota-related constraints.

This matters for battery and superalloy supply chains. The DRC remains the world’s dominant source of mined cobalt, so export policy can quickly affect availability, pricing and producer behaviour.

Cobalt is not produced in isolation at many Congolese operations. It is often linked to copper mining, which means policy limits on cobalt can influence mine sequencing, processing priorities and inventory decisions.

The first-quarter numbers therefore point to a more managed cobalt market. Supply is not only a function of ore grades and plant capacity. It is increasingly controlled by export approvals, quotas and state strategy.

Copper benefited from stronger grades at African operations and higher throughput at Antamina in Peru. That performance reinforces copper’s stronger strategic position at a time when demand from grids, electrification, industrial policy and data centres continues to attract market attention.

Nickel, Zinc and Ferro-Chrome Show Operational Pressure

Glencore’s nickel output fell by 9% to 17,200t. The decline was caused by a furnace disruption at the Sudbury complex in Canada, which affected matte shipment timing to Norway.

Nickel guidance remained unchanged at 70,000-80,000t. This suggests Glencore sees the first-quarter weakness as manageable rather than a full-year supply reset.

Zinc output fell by 17% to 176,900t. The decline was mainly linked to the closure of the Lady Loretta mine in Australia and lower output from Kazzinc in Kazakhstan.

Zinc guidance also remained unchanged at 700,000-740,000t. However, the first-quarter result shows how mine closures and regional production issues can still weigh on quarterly availability.

Ferro-chrome output collapsed by 95% to 13,000t because of continued care and maintenance at Glencore’s chrome smelting operations and the phased restart of the Lion Smelter in South Africa.

South African ferro-chrome remains under pressure from high energy prices and competition from lower-cost Chinese material. This has forced output cuts at major producers and weakened South Africa’s position in global ferro-alloy supply.

Glencore’s vanadium pentoxide production rose by 5% to 2,300t, offering a small positive signal in another strategic alloy material.

Overall, the quarter shows a company benefiting from copper strength while managing policy and cost pressures across cobalt, nickel, zinc and ferro-chrome. The most important signal is that copper and cobalt are now being shaped by very different forces: copper by grade and throughput, cobalt by DRC export control.

The Metalnomist Commentary

Glencore’s results show how government policy can be as powerful as geology in multi-metal supply chains. The DRC cobalt quota is not only reducing cobalt output; it is pushing producers to prioritise copper in one of the world’s most strategic mining regions.

RTC Aerospace Acquisition Expands US Titanium and Superalloy Machining Capacity

RTC Aerospace

RTC Aerospace acquisition of Automatic Products expands the US manufacturer’s machining capacity for complex aerospace and defence components. The deal adds a fifth production facility and strengthens RTCA’s position in precision manufacturing for high-value aircraft applications.

RTC Aerospace acquisition includes Automatic Products’ 120,000ft² facility in Sumner, Washington. The site adds capabilities across milling, turning, deburring, grinding and honing.

RTC Aerospace acquisition is strategically important because the plant processes high-temperature metals and superalloys including titanium, stainless steel and Inconel. These materials are widely used in aerospace structures, engines and defence systems where machining capability is highly specialised.

Financial terms were not disclosed, but the transaction broadens RTCA’s manufacturing footprint and gives the company more capacity to serve commercial and military aerospace customers.

Titanium and Inconel Machining Add Strategic Capacity

Aerospace machining requires more than conventional metalworking. Titanium and nickel-based superalloys are difficult to process because of their strength, heat resistance and tendency to generate high tool wear.

Automatic Products brings established capability in these materials. That matters as aerospace production rises and manufacturers seek qualified suppliers able to machine complex components at consistent quality.

Titanium remains important for aircraft structures, landing systems and engine-related applications because of its strength-to-weight ratio and corrosion resistance. Inconel and other nickel superalloys are essential for components exposed to high temperatures and mechanical stress.

The Sumner facility therefore adds capacity in precisely the materials where aerospace supply chains can face bottlenecks. Increasing machining capability can help convert more forged, cast or wrought metal into finished aerospace parts.

The acquisition also provides RTCA with additional production flexibility. Multiple facilities allow manufacturers to distribute workloads, manage customer programmes and reduce dependency on individual sites.

Aerospace Growth Supports Precision Manufacturing Consolidation

The deal reflects broader consolidation across the aerospace supply chain. Aircraft manufacturers and defence contractors increasingly need suppliers with enough scale to support higher production volumes while maintaining strict quality and traceability.

Machining businesses can benefit from this trend because qualified aerospace components often require extensive processing after primary metal production. That gives specialised manufacturers an important role between mills, forgers and final aircraft assemblers.

RTCA’s expanded footprint could also improve its ability to manage larger programmes and more complex assemblies. The addition of grinding, honing and finishing capabilities strengthens the company’s position beyond basic machining.

For metals suppliers, the deal reinforces the importance of downstream processing capacity. More titanium or superalloy production does not automatically translate into aircraft output unless qualified machining capacity is also available.

As commercial and defence aerospace demand grows, companies that control both capacity and specialised process knowledge will have a stronger position in the supply chain.

The Metalnomist Commentary

RTCA’s acquisition shows that aerospace bottlenecks increasingly sit in qualified machining, not only raw metal supply. Titanium and Inconel capacity becomes more valuable when manufacturers can reliably convert those materials into flight-ready components.

Pursuit Aerospace Acquisition Expands Titanium and Inconel Machining Capacity

Pursuit Aerospace

Pursuit Aerospace acquisition of Leesta Industries expands the US aerospace supplier’s machining capabilities and strengthens its position across engine and landing gear component production. The deal also gives Pursuit its first manufacturing site in Montreal, one of North America’s most important aerospace clusters.

Pursuit Aerospace acquisition adds a 38,000ft² facility in Pointe-Claire, Quebec, with milling, lathe and mill-turn capabilities. The plant produces precision components from titanium, stainless steel and Inconel.

Pursuit Aerospace acquisition also deepens the company’s exposure to several Pratt & Whitney engine platforms. Combining machining with existing forging capabilities gives Pursuit greater control over more stages of component production.

Financial terms were not disclosed, but the industrial logic is clear. Aerospace manufacturers increasingly value suppliers that can handle difficult materials, complex geometries and multiple processing stages within a qualified supply chain.

Machining Capability Complements Forging Operations

Leesta manufactures engine and landing gear components including bearing housings and actuator assemblies. These parts require tight tolerances, repeatability and strict quality control.

Titanium and Inconel are especially important because both are difficult to machine. Titanium offers high strength with low weight, while Inconel provides superior performance at elevated temperatures.

These characteristics make the materials critical for aircraft engines, landing systems and other demanding aerospace applications. They also increase the value of specialised machining capacity.

For Pursuit, adding Leesta’s equipment creates a stronger connection between forged input material and finished precision components. That can reduce reliance on external machining suppliers and improve production scheduling.

The acquisition also strengthens Pursuit’s ability to support Pratt & Whitney programmes. Engine supply chains remain highly qualification-intensive, meaning established machining capability can be difficult to replace quickly.

Montreal Footprint Strengthens Aerospace Supply Chain Position

The Montreal location adds strategic value beyond the individual facility. Quebec has a dense aerospace ecosystem spanning engines, landing gear, structures, machining and maintenance.

Operating inside that cluster can improve access to skilled labour, customers and specialised suppliers. It can also support future capacity expansion if commercial and defence aerospace demand continues to grow.

The deal reflects broader consolidation across aerospace manufacturing. Suppliers are adding machining, forging and assembly capabilities to capture more value and reduce dependence on fragmented subcontracting networks.

For titanium and nickel superalloy producers, this trend supports demand for qualified wrought and forged materials. Higher aircraft and engine production requires not only more metal, but also enough downstream capacity to convert that metal into flight-ready parts.

Pursuit’s acquisition therefore strengthens a critical middle layer of the aerospace supply chain where material expertise and machining know-how meet.

The Metalnomist Commentary

Aerospace supply constraints increasingly sit in qualified processing rather than raw material alone. Pursuit’s acquisition strengthens its ability to convert titanium and Inconel into high-value engine and landing gear components inside a strategically important aerospace hub.

Airbus 2026 Delivery Guidance Holds Despite Engine and Delivery Bottlenecks

Airbus

Airbus 2026 delivery guidance remains unchanged even after supply constraints and administrative delays reduced first-quarter deliveries. The European aircraft manufacturer is still targeting around 870 commercial aircraft deliveries this year and adjusted earnings before interest and taxes of about €7.5bn.

Airbus 2026 delivery guidance now depends on another heavily backloaded delivery year. The company delivered only 114 aircraft in January-March, leaving a large volume to be handed over across the remaining nine months.

Airbus 2026 delivery guidance is being tested by two separate issues. The first is the continuing dispute with Pratt & Whitney over geared-turbofan engine supply. The second is a temporary delivery delay involving nearly 20 aircraft for Chinese customers.

The company said its commercial programme ramp targets remain unchanged. However, the first-quarter result shows that aircraft production is still constrained by engines, quality repairs, customer delivery timing and geopolitical cost risks.

Pratt & Whitney Dispute Shifts Focus Toward 2027 Engine Supply

Airbus said scheduled Pratt & Whitney engine deliveries for 2026 are confirmed. The dispute with the RTX subsidiary now centres more heavily on 2027 supply.

This matters because Pratt & Whitney’s GTF engines are used on the Airbus A320neo family. A shortage of engines has already affected Airbus’ narrowbody production planning.

In February, Airbus cut its A320 build target to 70-75 aircraft a month in 2027. The adjustment was based on this year’s expected GTF receipt levels and the outlook for future engine availability.

Airbus is working with Pratt & Whitney to resolve the issue. Chief executive Guillaume Faury said the company is also assessing its contractual rights.

Airbus has leaned on alternative engine supplier CFM International where possible. However, Faury said CFM supply is not enough to offset the significant number of missing Pratt & Whitney engines.

The company is not currently producing A320 gliders, or completed aircraft without engines. That indicates Airbus is still trying to keep production and final delivery flows aligned rather than building unfinished inventory.

The engine issue remains strategically important for aerospace suppliers. Narrowbody aircraft output depends on a deep chain of titanium parts, nickel superalloy components, forgings, castings, powder metal parts, fan blades, disks and certified MRO capacity.

China Deliveries and Panel Repairs Add Short-Term Inventory Pressure

Airbus also faced an administrative delay that prevented the delivery of nearly 20 aircraft to Chinese customers in the first quarter. The issue increased inventory to €5bn, up €1.5bn from a year earlier.

The China delivery delay has now been resolved, and aircraft handovers resumed after the end of the first quarter. This should support second-quarter delivery recovery if no new bottlenecks emerge.

Airbus manufacturing and deliveries have also been misaligned because of repairs on fuselage panels disclosed last December. The company expects to resolve that panel quality issue and realign production with deliveries by the end of this quarter.

These issues show how sensitive aircraft deliveries remain to late-stage disruptions. Even when aircraft are built, certification, paperwork, engines, interior systems or quality repairs can delay revenue recognition and cash conversion.

Airbus said it has not experienced direct supply disruption from the Middle East crisis. However, it is monitoring higher oil and derivative product prices and their possible effects on global air traffic.

That risk matters because airline profitability can influence delivery schedules, fleet decisions and aftermarket demand. Higher fuel costs can also ripple through plastics, chemicals, logistics and aerospace supply costs.

For now, Airbus is keeping confidence in its full-year plan. But the company will need a much stronger delivery pace through the rest of 2026 to meet its 870-aircraft target.

The Metalnomist Commentary

Airbus’ unchanged guidance shows confidence, but the first quarter highlights how fragile the aerospace ramp-up still is. Engine availability, quality repairs and delivery timing are now as important as final assembly capacity in determining real aircraft output.

Boeing 737 MAX Production Cleared to Rise to 47 Aircraft a Month

Boeing 737 MAX

Boeing 737 MAX production is set to increase after the US Federal Aviation Administration approved a higher build rate of 47 aircraft per month. The move gives Boeing more room to lift narrowbody output after operating at 42 aircraft per month since the end of 2025.

Boeing 737 MAX production could reach the new rate within the next 30-90 days, according to the FAA. That timeline is broadly in line with Boeing’s expectation of reaching 47 aircraft per month during the summer.

Boeing 737 MAX production growth is important for the wider aerospace supply chain because higher build rates translate into stronger demand for aluminium, titanium, nickel superalloys, fasteners, landing gear, engines and precision components.

The increase also marks another step away from the tighter production controls imposed after quality concerns. Boeing is now trying to raise output while maintaining stricter oversight across manufacturing and supplier operations.

Renton and Everett Will Support the Next Production Step

Boeing will increase 737 MAX output from its Renton, Washington, facility. At the same time, the company is preparing a new final assembly line in Everett, Washington.

The Everett line is expected to start later this year and will support future increases beyond 47 aircraft per month. This gives Boeing additional assembly capacity as it works through its large commercial backlog.

Future production increases will be more gradual. Boeing has said build rates will rise in increments of five aircraft per month, with at least six months between each step.

That approach reflects the company’s focus on quality control and manufacturing stability. Faster production is valuable only if suppliers, inspections and final assembly can support the higher rate without new disruptions.

The current 42 aircraft per month rate was reached after the FAA lifted its previous 38-per-month cap in October. The latest approval therefore represents another measured step in Boeing’s recovery.

Higher Build Rates Lift Aerospace Materials Demand

A production increase from 42 to 47 aircraft per month means five additional narrowbody aircraft entering the manufacturing system every month. That has a direct impact on upstream materials and component suppliers.

Commercial aircraft rely heavily on aerospace-grade aluminium for structures and skins, titanium for high-strength and corrosion-resistant components, and nickel-based superalloys for engines and high-temperature systems.

Higher output also supports demand for forgings, castings, fasteners, composites and specialty machined parts. Many of these products come from tightly qualified supply chains with limited supplier flexibility.

The Everett expansion could amplify that demand further if Boeing receives approval for additional rate increases. Each production step places more pressure on suppliers to expand capacity while preserving aerospace quality standards.

This is especially relevant for titanium and nickel alloy suppliers. Aerospace demand is often less price-sensitive than industrial demand because material qualification and supply continuity are more important than spot cost.

For the metals market, Boeing’s production recovery therefore matters beyond aircraft deliveries. It can strengthen demand across the aerospace materials chain and improve visibility for suppliers with qualified positions on the 737 MAX programme.

The Metalnomist Commentary

Boeing’s latest production approval is a positive signal for aerospace materials demand, but the real constraint is supplier readiness. The next phase of 737 MAX growth will depend on whether qualified aluminium, titanium, superalloy and component suppliers can scale with Boeing.

Rolls-Royce Blade Casting Investment Expands UK Jet Engine Supply Capacity

Rolls-Royce

Rolls-Royce blade casting investment in the UK will strengthen the company’s ability to supply critical turbine components for widebody aircraft engines. The jet engine manufacturer has invested £21.3 million in its Advanced Blade Casting Facility in Rotherham to double output by 2030.

The Rolls-Royce blade casting investment includes a £2 million grant from the South Yorkshire Mayoral Combined Authority. Rolls-Royce will provide the remaining £19.3 million, supporting additional specialist machines at the facility.

The expansion matters because turbine blades are among the most technically demanding components in a modern jet engine. They require advanced casting, machining, inspection, and materials control to operate under extreme temperature and stress conditions.

Single Crystal Turbine Blade Capacity Targets Engine Production Bottlenecks

The Advanced Blade Casting Facility casts, machines, and inspects intermediate and high-pressure turbine blades. When the facility opened in 2015, it had capacity to produce 100,000 single crystal turbine blades per year.

Single crystal turbine blades are strategically important because they support higher engine efficiency and durability. Their production depends on precision casting expertise, tight process control, and reliable access to high-performance nickel-based superalloys.

The Rolls-Royce blade casting investment therefore strengthens a key bottleneck area in aerospace manufacturing. As engine makers work to improve delivery schedules and support airline fleet growth, turbine blade capacity remains central to supply chain resilience.

Rotherham Expansion Supports Trent XWB and Trent 1000 Engines

The Rotherham facility supplies turbine blades for the Trent XWB-84 engine, which powers the Airbus A350-900. It also supports the Trent 1000 XE engine used on the Boeing 787.

This links the investment directly to two major long-haul aircraft platforms. Higher blade output should help Rolls-Royce support both new engine production and long-term aftermarket demand.

For the wider UK aerospace supply chain, the investment reinforces the country’s role in advanced engine manufacturing. It also highlights the continued importance of casting, machining, inspection, and superalloy technology in global aerospace competitiveness.

The Metalnomist Commentary

Rolls-Royce’s Rotherham investment shows that aerospace capacity expansion is increasingly focused on hard-to-make components rather than simple assembly. For specialty metals suppliers, single crystal turbine blades remain one of the clearest demand signals for nickel superalloys and advanced casting capability.

Airbus Safran Aubert & Duval Deal Deepens Control of Aerospace Speciality Metals

Aubert & Duval

Airbus Safran Aubert & Duval ownership is set to consolidate further after the two European aerospace groups agreed to acquire Tikehau Capital’s stake in the French speciality metals producer.

Airbus Safran Aubert & Duval control is strategically important because the company manufactures bars, forgings, ingots and other products from speciality steels, nickel-based superalloys and titanium. These materials are critical for aircraft engines, structural components and defence applications.

Airbus Safran Aubert & Duval ownership will be split more directly between the two industrial buyers after Tikehau’s stake is divided equally between them. The transaction remains subject to regulatory approvals.

The deal strengthens vertical control over a strategic European aerospace materials supplier at a time when aircraft manufacturers continue to face bottlenecks in forgings, superalloys and titanium components.

Aerospace Groups Secure Critical Forging and Alloy Capacity

Aubert & Duval occupies an important position between raw metal production and finished aerospace components. Its products include speciality alloy ingots, bars and forgings used in demanding high-temperature and high-strength applications.

This makes the company strategically relevant to both Airbus and Safran. Airbus needs qualified titanium, steel and superalloy products across aircraft structures and systems, while Safran depends heavily on high-performance metals for jet engine components.

Forging capacity is particularly important. Aerospace forgings require specialised equipment, long qualification cycles and tight process control, making it difficult to replace suppliers quickly when capacity tightens.

Superalloys also remain essential for hot-section engine components because they retain mechanical strength and corrosion resistance at extreme temperatures.

Titanium serves a different but equally important role. Its strength-to-weight ratio and corrosion resistance make it valuable in aircraft structures, landing gear, engine systems and other high-performance applications.

By increasing direct ownership, Airbus and Safran gain stronger influence over investment, capacity planning and production priorities at a supplier embedded deep inside their supply chains.

European Supply Security Drives Vertical Integration

Airbus, Safran and Tikehau originally acquired Aubert & Duval from Eramet in April 2023. The latest transaction moves the company even closer to its two largest strategic industrial stakeholders.

The French government also retains a special share to protect national strategic interests. That structure highlights the importance of Aubert & Duval not only to commercial aviation but also to defence and sovereign industrial capability.

The transaction reflects a wider aerospace trend toward securing critical suppliers rather than relying entirely on open-market procurement. Aircraft backlogs remain high, while qualified metals capacity has struggled to expand quickly enough in several segments.

Direct ownership can help protect investment in furnaces, forging presses, heat treatment and downstream processing. It can also improve coordination between material availability and aircraft or engine production schedules.

For Europe, this matters because aerospace supply security increasingly depends on retaining domestic capability in specialty alloys and high-value metal processing.

The transaction therefore goes beyond a financial restructuring. It strengthens Airbus and Safran’s control over one of Europe’s most strategically important producers of titanium, speciality steels and superalloys.

The Metalnomist Commentary

Airbus and Safran are treating speciality metals capacity as strategic infrastructure rather than a conventional supplier relationship. In aerospace, control over qualified titanium, superalloy and forging capacity is becoming as important as aircraft assembly itself.

Molymet Maritime House Rhenium Recycling JV Targets Aerospace Supply Growth

Molymet

The rhenium recycling JV between Molymet and Maritime House signals a strategic response to tightening aerospace material demand. The two companies signed an MoU for a planned 50:50 partnership focused on recycling rhenium-bearing materials. The JV aims to produce ammonium perrhenate, rhenium metal, pellets, and powder. As a result, the rhenium recycling JV could strengthen western supply security in a market under growing pressure.

This move matters because rhenium remains one of the most critical specialty metals in aerospace alloys. The metal is not replaceable in several nickel-based superalloys used for turbine blades. Demand from western aerospace manufacturers remains firm, while Chinese import demand for ammonium perrhenate is also supporting the market. Therefore, the rhenium recycling JV enters the market at a time of elevated strategic importance.

The structure of the plan also reflects practical execution. The partners intend to use existing facilities in Chile or Canada first. They will later assess whether a dedicated North American processing plant is commercially justified. Consequently, the rhenium recycling JV begins with flexibility while preserving a pathway to larger regional capacity.

Aerospace Rhenium Demand Is Raising the Value of Recycling

Aerospace rhenium demand is making recycling more important than ever. Engine makers continue to require high-performance superalloys for aircraft engines and industrial gas turbines. That keeps demand resilient even when broader industrial markets weaken. Meanwhile, rhenium prices have reached their highest levels in more than a decade.

That price environment is increasing the value of recycled feedstocks. Rhenium-bearing materials include nickel-based superalloy scrap and binary alloy scrap. These streams offer an alternative source of metal in a market where primary supply remains limited. Therefore, recycling is becoming a more strategic pillar rather than a secondary source.

Molymet and Maritime House also bring strong positioning to this effort. Molymet is the world’s largest primary rhenium producer. Maritime House is the world’s largest recycler of rhenium-containing materials. As a result, the partnership combines primary market scale with recycling expertise in a way few competitors can match.

Ammonium Perrhenate Supply Could Gain a Stronger North American Base

Ammonium perrhenate supply is one of the most important commercial outcomes of this partnership. APR is a critical intermediate product in the rhenium value chain. A more reliable recycled APR stream could support aerospace customers facing tighter procurement conditions. Consequently, the JV could improve both supply diversity and supply resilience.

The North American angle also deserves attention. The partners said they may evaluate a new regional processing facility if feed volumes exceed existing capacity. That would align with broader efforts to localize strategic material processing closer to end users. Therefore, the rhenium recycling JV could evolve from a recycling agreement into a more significant North American supply platform.

The decision to work with original equipment manufacturers also adds commercial depth. The JV plans to offer both recycling and primary supply solutions. That model could make procurement easier for aerospace customers seeking closed-loop or dual-source strategies. As a result, the partnership may gain relevance beyond simple metal conversion.

The Metalnomist Commentary

This deal stands out because it links recycling, primary production, and aerospace demand in one strategic framework. Rhenium remains a small-volume metal, but it carries outsized importance in high-performance superalloys. If this JV scales successfully, it could become one of the more important specialty metals partnerships in the western aerospace supply chain.