TI Silicon Labs Acquisition Signals a Bigger Push in US Semiconductor Reshoring

Texas Instruments

The TI Silicon Labs acquisition marks a major move in the US semiconductor sector. Texas Instruments plans to acquire Silicon Labs in a deal worth about $7.5bn. The transaction would add a large wireless connectivity portfolio to TI’s business. As a result, the TI Silicon Labs acquisition could strengthen both product scale and domestic manufacturing control.

This deal matters because Silicon Labs brings around 1,200 embedded wireless connectivity products. Those products fit closely with TI’s broader semiconductor footprint. Management said the portfolio integrates well with TI’s manufacturing strategy. Therefore, the TI Silicon Labs acquisition looks like a capacity and product expansion move at the same time.

The industrial message is also clear. TI plans to reshore Silicon Labs manufacturing from overseas foundries. That gives the company more direct control over production, supply security, and long-term cost structure. Consequently, the TI Silicon Labs acquisition supports a wider US semiconductor reshoring trend.

US Semiconductor Reshoring Gains More Strategic Weight

US semiconductor reshoring is becoming a bigger part of TI’s long-term strategy. The company already operates three 300mm wafer fabs in the United States. Two are in Texas and one is in Utah. As a result, TI has a strong domestic production base to absorb future expansion.

The company is also planning more capacity. TI intends to build two additional 300mm fabs in Texas under its $60bn domestic investment plan. That means the Silicon Labs acquisition would sit inside a much larger manufacturing agenda. Therefore, US semiconductor reshoring is not a side theme here. It is central to the deal’s logic.

This matters for supply chains as well. Companies want more stable access to chips used in communications, industrial systems, and connected devices. Domestic manufacturing offers better visibility during geopolitical or logistics disruption. Meanwhile, reshoring can improve alignment between product design and production strategy.

300mm Wafer Fabs and Wireless Products Create a Stronger TI Platform

300mm wafer fabs give TI a meaningful advantage in scale and manufacturing efficiency. Adding Silicon Labs could let TI connect that production strength with a deeper wireless product offering. That combination could be especially valuable in industrial and embedded markets. Consequently, the TI Silicon Labs acquisition may improve both reach and operating leverage.

The transaction structure also shows confidence. TI expects to fund the deal with cash and debt financing. The companies expect the acquisition to close in the first half of 2027, subject to shareholder approval. Therefore, the market now has a clearer timeline for how this strategy may unfold.

The broader takeaway is important. This is not only a portfolio expansion. It is also a bet that domestic semiconductor manufacturing and wireless connectivity will matter more together in the years ahead. As a result, the TI Silicon Labs acquisition may become a notable example of how product strategy and reshoring strategy are starting to merge.

The Metalnomist Commentary

This deal stands out because it combines technology breadth with manufacturing intent. TI is not just buying wireless products. It is using the acquisition to reinforce a longer-term US semiconductor reshoring strategy built around scale, control, and domestic capacity.

US Semiconductor Manufacturers Expand with CHIPS Act Funding

US Chip

The US Department of Commerce has allocated CHIPS Act funding to boost domestic semiconductor production. Companies Analog Devices, Coherent, IntelliEPI, and Macom will use this funding to increase manufacturing capacity, modernize facilities, and enhance the US semiconductor supply chain.

Investments in Key Semiconductor Companies

On January 16, the Department of Commerce announced preliminary funding agreements for four semiconductor manufacturers:

• Analog Devices will receive up to $105 million to expand mature node semiconductor manufacturing at its Oregon and Washington facilities. The investment will boost capacity by 70%, focusing on 180nm and 350nm process nodes. It will also expand module production at its Massachusetts facility for commercial, space, and defense applications.

• Coherent will receive up to $79 million to increase 150mm and 200mm silicon carbide (SiC) wafer production at its Easton, Pennsylvania facility. The expansion will add 750,000 substrates per year and double epitaxial wafer output, supporting energy and military applications.

• IntelliEPI will use $10.3 million to modernize its Allen, Texas facility, which produces epitaxy materials for indium phosphide, gallium arsenide (GaAs), gallium antimonide, and gallium nitride (GaN) wafers. These materials are essential for defense, AI, data centers, telecommunications, and automotive industries.

• Macom has announced a $345 million investment over five years, supported by up to $180 million in CHIPS Act funding, federal tax credits, and state funding. The company will modernize its Massachusetts and North Carolina wafer fabrication plants. Its Massachusetts facility will upgrade 100mm production lines for GaAs, GaN, and silicon materials and install 150mm GaN-on-SiC manufacturing. In North Carolina, Macom will develop 150mm wafer production and expand metal-organic chemical vapor deposition (MOCVD) epitaxial growth.

Strengthening the US Semiconductor Supply Chain

The CHIPS Act investments will expand domestic semiconductor production, ensuring a more resilient supply chain for key industries such as automotive, defense, telecommunications, and AI. These companies will also benefit from the Advanced Manufacturing Investment Tax Credit, which covers 25% of qualified capital expenditures.

By scaling up domestic semiconductor manufacturing, the US aims to reduce dependence on foreign suppliers and strengthen its position in advanced technology sectors.

US Gallium Recovery Projects Target Domestic Supply Chain for Defense and Semiconductors

DOE(The US Department of Energy)

US gallium recovery projects will receive $5.4mn in funding from the Department of Energy as Washington tries to rebuild domestic supply for a metal critical to defense systems, semiconductors and advanced electronics. The funding will support five US-based projects under the Technology for Recovery and Advanced Critical-material Extraction – Gallium initiative.

The TRACE-Ga initiative is designed to prototype technologies that can recover gallium from US metal-processing feedstocks. This is important because the US is fully import-reliant for gallium and has not produced the metal domestically since 1987.

US gallium recovery projects are gaining urgency because gallium is essential for compound semiconductor materials, including gallium nitride. These materials support power electronics, radio-frequency devices, radar systems, satellite communications, fast chargers, LEDs and other high-performance technologies.

The funding is modest in scale, but strategically important. It signals that the US is no longer focusing only on mining new critical minerals. It is also trying to recover strategic metals from industrial by-products, waste streams and existing processing networks.

TRACE-Ga Funding Targets Recovery From Existing Feedstocks

The DOE award will support five companies working on gallium recovery technologies. Participants include PHNX Materials, Atlantic Alumina Company, Found Energy, Kunin Technologies and Indium Corporation.

The selection of companies shows how broad the recovery opportunity could become. Gallium is not usually mined as a primary product. It is commonly recovered as a by-product from other industrial processes, especially alumina and zinc-related supply chains.

This makes gallium recovery different from conventional mining. The key challenge is not only finding deposits, but identifying feedstocks where gallium exists in recoverable concentrations and developing technologies that can extract it economically.

Industrial waste refiner PHNX Materials could support recovery from complex waste streams. Atlantic Alumina Company brings relevance to alumina-linked feedstock. Found Energy adds an aluminum-related industrial angle, while Kunin Technologies focuses on mineral by-product recovery. Indium Corporation brings downstream metals refining and manufacturing expertise.

The TRACE-Ga initiative therefore targets the middle of the supply chain. It seeks to bridge the gap between laboratory recovery methods and scalable domestic production.

That gap matters because gallium supply is highly concentrated. China dominates primary gallium production and has used export controls to increase pressure on global buyers. For US defense and semiconductor supply chains, reliance on foreign gallium has become a clear strategic risk.

Domestic recovery could help reduce that exposure. Even if early projects produce limited volumes, they can prove process routes, identify feedstock partners and create the technical base for larger recovery systems.

The use of US metal-processing feedstocks also fits a wider circular materials strategy. Instead of waiting for new mines, the US can extract critical materials from industrial streams already moving through domestic facilities.

This could make recovery faster than new primary production. However, it still requires technical success, feedstock security, refining capability and customer qualification.

Gallium Nitride Demand Raises Strategic Pressure

Gallium’s strategic value has increased because of its role in gallium nitride and other compound semiconductor materials. Gallium nitride is widely used where high power, high frequency, efficiency and heat performance matter.

These applications are highly relevant to defense and advanced electronics. Radar, communications systems, satellite technologies, power conversion equipment and semiconductor devices all rely on materials where gallium can be difficult to substitute.

The DOE’s TRACE-Ga funding also sits alongside a larger notice of funding opportunity of up to $69mn. That programme targets technologies and processes that advance domestic production and refining of critical materials, including gallium and gallium nitride for semiconductor applications.

This shows that Washington is building a layered funding strategy. TRACE-Ga supports recovery prototypes, while broader DOE programmes aim to scale refining, alloying and advanced material production.

For the semiconductor industry, domestic gallium supply is not only a raw material issue. It is connected to wafer production, epitaxy, device manufacturing, packaging and defense procurement. A shortage or export disruption at the gallium stage can move through the entire compound semiconductor chain.

This is why gallium recovery matters even if volumes are small at first. Strategic materials often have low tonnage but high consequence. A reliable domestic supply stream can reduce procurement risk for critical systems.

The challenge will be commercialisation. Recovery from waste and by-products can be technically complex because gallium concentrations may be low and feedstock chemistry can vary. Companies must prove that their processes can recover gallium consistently, meet purity requirements and operate at competitive cost.

The US also needs downstream refining capacity. Recovering gallium-bearing material is not enough if the material cannot be refined into forms suitable for semiconductor and defense applications.

The DOE funding is therefore best understood as an early-stage industrial rebuilding tool. It does not immediately solve US gallium dependence, but it helps create the technologies and partnerships needed to rebuild supply.

The Metalnomist Commentary

US gallium recovery projects show that critical mineral security increasingly depends on recovering by-products from existing industrial systems. The strategic test will be whether TRACE-Ga can move beyond prototypes and create reliable domestic feedstock for gallium nitride, defense electronics and semiconductor manufacturing.

LEO Semiconductor Demand Rises as US-China Space Race Accelerates

LEO chip

LEO semiconductor demand is accelerating as low earth orbit satellite deployment expands and the US-China space technology race intensifies. Greater satellite density is increasing the semiconductor content required for communications, sensing, computing and power management.

LEO semiconductor demand is also creating new opportunities for advanced materials including gallium nitride, silicon germanium and indium phosphide. These materials support high-frequency communications, radio-frequency power, photonics and other functions where conventional silicon can face performance limits.

LEO semiconductor demand is moving beyond traditional government space programmes as private capital enters satellite broadband, direct device connectivity and potential orbital data centres. The shift is increasing launch frequency and expanding the commercial market for space-qualified electronics.

The development has strategic implications for gallium and indium supply chains. Higher deployment of GaN and InP devices could increase demand for high-purity materials already considered strategically sensitive.

GaN and InP Gain From Higher Satellite Semiconductor Intensity

Modern LEO constellations require increasingly sophisticated radio-frequency chips, optical communications devices, sensors and power electronics.

GaN is particularly important for RF power amplifiers because it performs efficiently at high frequencies and power levels. This makes it suitable for satellite communications, phased-array antennas and future 6G networks integrating space, air and ground infrastructure.

China is building more domestic capability across this value chain as US technology controls increase pressure for semiconductor self-sufficiency.

CETC-linked companies are already supplying advanced components for Chinese spacecraft and communications systems. Recent mass production of millions of GaN RF chips indicates that China is moving some advanced compound semiconductor technology from specialised programmes toward higher-volume deployment.

Indium phosphide could benefit from another part of the satellite market. InP is important for high-speed optical communications and photonic systems, which could become increasingly valuable as satellite networks move larger volumes of data.

Silicon germanium also offers advantages in high-frequency and radiation-sensitive electronics, adding another specialty materials route into the expanding space semiconductor market.

The result is a broader materials opportunity. Satellite growth is no longer only about aluminium structures, titanium components and propulsion materials; semiconductor-grade gallium, indium and germanium are becoming increasingly important.

Orbital Manufacturing Could Open a New Semiconductor Investment Cycle

The US is also considering greater policy support for semiconductor manufacturing in space. Proposed legislation would clarify that semiconductor manufacturing in LEO can qualify for incentives under the CHIPS and Science Act.

The objective reflects growing concern that China could gain an early advantage in orbital manufacturing.

Microgravity manufacturing is attracting interest because some semiconductor materials could potentially be produced with fewer defects and improved uniformity compared with terrestrial processes.

Private companies are accelerating that development. SpaceX, Blue Origin, Google and specialist manufacturers are exploring concepts ranging from orbital data centres to in-space semiconductor production.

The economic model of the space industry is also changing. Commercial investment now represents a much larger share of total space spending than government budgets, increasing the pace at which new technologies can move from development into deployment.

Reusable rockets, lighter satellites and higher-volume manufacturing have reduced the cost of deploying large constellations. Advanced antennas and semiconductor systems originally developed for military applications are also moving into commercial markets.

For metals and materials suppliers, this creates another high-growth demand channel. Aerospace-grade titanium and nickel alloys remain important, but the next phase of the space economy will increasingly depend on advanced semiconductor materials and high-purity minor metals.

The Metalnomist Commentary

The LEO race is becoming a materials race as much as a satellite race. Gallium, indium and germanium could gain strategic value as communications, computing and semiconductor manufacturing move increasingly into orbit.

US Expands Semiconductor Investments with India Partnership

India Chip

The US government continues to ramp up investments in semiconductor manufacturing both domestically and internationally, with a significant focus on partnerships with allied nations. This week, a major agreement was reached between the US and Indian governments to establish a new semiconductor plant in Kolkata, India. The facility will focus on producing advanced semiconductors, including infrared, gallium nitride (GaN), and silicon carbide (SiC), to support sectors such as national security, next-gen telecommunications, and clean energy.

Strengthening Tech Ties: US-India Collaborations

This venture is a part of a broader collaboration supported by the US Space Force, Bharat Semi, 3rdiTech, and the India Semiconductor Mission. The mission, initiated by India's electronics and IT ministry (MIIT), aims to build a robust semiconductor supply chain, supported by the US Department of Commerce’s International Technology Security and Innovation (ITSI) Fund. The fund itself is a key initiative under the CHIPS and Science Act, designed to bolster US semiconductor production.

In addition to the plant in Kolkata, US-based Analog Devices has also signed a partnership with India's Tata Electronics. Their collaboration focuses on chip production at Tata's planned $11bn manufacturing plant in Gujarat, with a potential $3bn facility for chip assembly and testing in Assam. Furthermore, US manufacturer GlobalFoundries, after acquiring Tagore Technology’s power GaN IP, announced plans to develop a Kolkata Power Centre for GaN technology.

On the domestic front, the US Commerce Department recently awarded Polar Semiconductor up to $123mn to expand its silicon wafer manufacturing in Bloomington, Minnesota. This marks the first allocation under the CHIPS Act for commercial chip production, which has sparked over $400bn in private semiconductor investments and more than $35bn across 16 states.

Indium Corp Gallium Recovery Grant Targets US Semiconductor Materials Security

Indium Corp

Indium Corp gallium recovery plans have gained US government support as Washington looks to build domestic supply chains for strategic semiconductor materials. The US-based metals refiner and manufacturer will receive a $3.2mn Department of Energy grant to recover gallium from industrial residues.

Indium Corp gallium recovery will focus on converting gallium-bearing residues into high-purity gallium for semiconductors and electronics. The project is part of the DOE’s Technology for Recovery and Advanced Critical-material Extraction-Gallium initiative.

Indium Corp gallium recovery matters because gallium is a critical input for compound semiconductors, radio-frequency devices, optoelectronics, defence systems and advanced electronics. The US remains heavily exposed to foreign supply because primary gallium production is concentrated in China.

The company will begin by developing a prototype to reclaim metallic gallium at its Rome, New York facility. In a second phase, it aims to scale the process to produce at least 1 t/yr of 99.99% pure gallium.

Gallium Residues Offer a Domestic Recovery Route

The project targets gallium-bearing residues rather than new primary mine output. This is strategically important because gallium is usually recovered as a by-product from alumina and zinc processing, making standalone primary supply difficult to build quickly.

Residue recovery can create a faster domestic supply route. If Indium Corp can economically recover high-purity gallium from waste streams, it could reduce dependence on imported material and strengthen US electronics supply chains.

The planned 99.99% purity level is important for semiconductor and electronics applications. High-purity gallium is used in materials such as gallium arsenide and gallium nitride, which support power electronics, LEDs, lasers, sensors, radar and communications equipment.

The Rome facility gives the project an existing industrial base. That can shorten the path from laboratory development to pilot production, although scale-up remains the key technical challenge.

A target of at least 1 t/yr is modest compared with global demand. However, the strategic value is larger than the tonnage suggests. The project could validate a recovery process that can later be expanded or replicated across other gallium-bearing waste streams.

TRACE-Ga Reflects US Push Into Critical Materials Recycling

Indium Corp was selected as one of five recipients under the DOE’s TRACE-Ga initiative. The programme will award a total of $5.4mn across companies working on gallium recovery and extraction technologies.

Other recipients include PHNX Materials, Atlantic Alumina, Found Energy and Kunin Technologies. Their inclusion shows that the US is exploring several recovery routes, from industrial waste refining to alumina-linked by-products and emerging mineral processing technologies.

The initiative reflects a broader policy shift. Washington is trying to secure critical materials not only through mining, but also through recycling, residue recovery, by-product extraction and domestic refining.

This approach is logical for gallium. China accounts for nearly all primary gallium production, making the market highly vulnerable to export controls, licensing delays and geopolitical disruption.

Gallium’s strategic value has increased because it supports both commercial and defence technologies. It is used in semiconductors, military systems, optics and high-frequency electronics.

For US manufacturers, secure gallium supply is becoming more urgent as demand grows from data centres, 5G systems, satellites, radar, power electronics and defence platforms.

The Indium Corp project will not solve the US gallium deficit by itself. But it is an important step toward creating a domestic recovery ecosystem for a metal that is difficult to source quickly during supply shocks.

The Metalnomist Commentary

The Indium Corp grant shows that gallium security will depend on by-product recovery and recycling as much as new mining. For the US, even small domestic gallium projects matter because the current supply chain is too concentrated for a material tied to semiconductors and defence.

Texas Instruments Expands Chip Manufacturing with Two New Fabs in Texas

Texas Instruments

Texas Instruments Expands Domestic Semiconductor Capacity

Texas Instruments (TI) will build two new semiconductor fabrication facilities in Sherman, Texas, as part of its $60bn investment plan. The company aims to strengthen domestic semiconductor production amid rising demand and strategic US policy support. These facilities will join seven other fabs already operating or planned across Texas and Utah, collectively expected to produce hundreds of millions of chips daily at full capacity.

Federal Support Boosts Semiconductor Manufacturing Investment

The US government is playing a central role in enabling TI’s semiconductor expansion. In 2024, TI secured $1.6bn under the US Chips and Science Act to support construction of its first two Sherman fabs and its second Lehi, Utah, facility. The company also expects $6bn–8bn in additional tax credit funding from the US Treasury Department’s advanced manufacturing investment program. If Congress raises the investment credit percentage from 25pc to 30pc, TI could gain further support for its projects.

Broader Impact on Semiconductor Supply Chains

TI’s semiconductor fabs will play a crucial role in securing critical supply chains for US industries. The company produces analog and embedded processing semiconductors for major customers such as Apple, Ford, Medtronic, Nvidia, and SpaceX. By expanding capacity, TI will help reduce reliance on foreign semiconductor sources, strengthen resilience against supply shocks, and enhance competitiveness across technology and automotive markets.

The Metalnomist Commentary

Texas Instruments’ expansion reflects the reshaping of global semiconductor supply chains under US industrial policy. While the $60bn investment is significant, its real impact lies in reducing import dependency and fortifying key technology sectors. The fabs will strengthen US capabilities in advanced manufacturing, ensuring long-term resilience in a geopolitically sensitive industry.

Korea Zinc Tennessee Smelter Gains FAST-41 Support for Critical Minerals Refining

Korea Zinc

Korea Zinc Tennessee smelter plans have gained federal permitting support after the US Permitting Council added Project Crucible to FAST-41 coverage. The designation is intended to speed permitting for the proposed smelting and refining facility in Clarksville, Tennessee.

The Korea Zinc Tennessee smelter would produce 12 non-ferrous metals, including zinc, copper, lead, antimony, gallium and germanium. It would also produce semiconductor-grade sulfuric acid, making the project strategically relevant to metals, chemicals and semiconductor supply chains.

The Korea Zinc Tennessee smelter is significant because it would be the first large-scale domestic zinc refinery built in the US since the 1970s. It also reflects Washington’s effort to rebuild domestic refining capacity for critical minerals and reduce dependence on overseas processing.

Project Crucible is planned as a $7.4bn investment. Korea Zinc announced the project in December in a joint venture with the US commerce and defense departments after acquiring the adjacent East Tennessee and Mid Tennessee mining complexes and the Clarksville smelter from Trafigura-owned Nyrstar.

Project Crucible Targets a Multi-Metal Refining Gap

Project Crucible is designed to process 1.1mn t/yr of raw materials and produce 540,000 t/yr of finished products. Korea Zinc expects to source feedstock mainly from the US and other North American sources.

This feedstock strategy matters because the US has mine supply and scrap flows, but lacks enough large-scale refining and separation capacity for several strategic materials. Project Crucible could help close that midstream gap.

The product mix is especially important. Zinc, copper and lead provide scale, while antimony, gallium and germanium add critical minerals value.

Gallium and germanium are strategically sensitive because they are used in semiconductors, fibre optics, infrared systems, defence electronics and advanced manufacturing. Antimony is also important for flame retardants, ammunition, lead alloys and military applications.

The facility’s semiconductor-grade sulfuric acid output adds another layer of industrial importance. High-purity sulfuric acid is a key chemical input for semiconductor manufacturing and advanced electronics.

Korea Zinc plans to base the facility on its Onsan smelter in South Korea. That gives the project an established technical reference point and strengthens its credibility as a complex multi-metal refining platform.

FAST-41 Status Supports US Industrial Supply Security

FAST-41 coverage gives Project Crucible a more coordinated federal permitting path. The Permitting Council also signed a memorandum of understanding with Tennessee to align federal and state permitting efforts.

The US Department of Defense will primarily oversee permitting for the project. That role underlines the national security importance of domestic critical minerals refining.

Korea Zinc expects construction to begin in 2027. Phased operations are scheduled to start in 2029 with zinc, lead and copper production.

Finished products are expected to move to US customers by rail. This gives the project a domestic logistics route and supports the broader goal of building mine-to-market North American supply chains.

The project fits a wider US strategy. Washington is trying to accelerate permitting, use defence-linked financing and support domestic refining capacity for materials used in semiconductors, defence, energy infrastructure and manufacturing.

For Korea Zinc, the project offers a major entry into US critical minerals processing. For the US, it provides a rare chance to add large-scale refining capacity across both base metals and strategic minor metals.

The Metalnomist Commentary

Project Crucible shows that the US critical minerals challenge is increasingly about refining, not only mining. If Korea Zinc can execute the Tennessee smelter on schedule, it could become one of the most important non-Chinese multi-metal refining assets in North America.

India Semiconductor Mission Adds GaN Micro-LED and Power Chip Projects

India, Semiconductor

India Semiconductor Mission has approved two additional semiconductor manufacturing projects in Gujarat, strengthening India’s push into compound semiconductors, advanced displays and power electronics. The new projects represent combined investment of about 39.36bn rupees.

India Semiconductor Mission support now includes the country’s first commercial mini/micro-LED display facility based on gallium nitride technology. This moves India beyond conventional chip assembly and into higher-value compound semiconductor manufacturing.

India Semiconductor Mission approvals have now reached 12 projects, with cumulative planned investment of about Rs1.64 trillion. The programme is becoming a central tool for reducing import dependence and building domestic semiconductor capability.

The two new projects will be developed by Crystal Matrix and Suchi Semicon. Their focus areas differ, but both support India’s broader objective of building a more complete electronics and semiconductor value chain.

GaN Micro-LED Facility Moves India Into Compound Semiconductors

Hyderabad-based Crystal Matrix will build an integrated compound semiconductor fabrication and assembly, testing, marking and packaging facility at Dholera. The plant will produce mini/micro-LED display modules and provide GaN foundry services.

The project will include epitaxy on 6-inch wafers, which is strategically important. Epitaxy is a core upstream process for compound semiconductor devices and can determine performance, yield and scalability.

The facility’s planned capacity is 72,000 m²/yr of mini/micro-LED display panels. These products can serve large-format televisions and signage, medium-sized screens for tablets, smartphones and vehicles, and micro-displays for smart glasses, smartwatches and extended-reality devices.

Gallium nitride gives the project industrial significance beyond display manufacturing. GaN is a critical material for high-brightness LEDs, power electronics, radio-frequency systems and advanced optoelectronics.

The Dholera project therefore adds a materials dimension to India’s semiconductor strategy. It links chip manufacturing policy with gallium-based compound semiconductor supply chains, where China, Taiwan, Japan, the US and Europe remain important competitors.

Power Semiconductor Assembly Supports Automotive and Industrial Demand

Suchi Semicon will establish an outsourced semiconductor assembly and test plant in Surat. The facility will focus on discrete semiconductor manufacturing for power electronics, analogue integrated circuits and industrial systems.

The planned capacity is 1.03bn chips/yr. This scale matters because India’s automotive, industrial automation and consumer electronics sectors need reliable domestic access to power and analogue components.

Power electronics are becoming more important as electrification spreads across vehicles, factories, appliances, renewable energy systems and charging infrastructure. Even basic discrete devices can become supply-chain bottlenecks when manufacturing is concentrated overseas.

The approval also strengthens Gujarat’s role as a semiconductor manufacturing hub. Dholera and Surat now join a growing cluster of projects intended to support fabrication, packaging, testing and electronics manufacturing.

Of the 10 projects approved earlier under the programme, two have started commercial shipments and two more are expected to begin operations soon. The government has also approved 104 start-ups to expand domestic chip design capability.

That combination is important. Manufacturing capacity alone is not enough. India also needs design companies, materials suppliers, equipment support, packaging capability and customers willing to qualify domestic semiconductor products.

The latest approvals show that India is trying to build depth across the value chain. GaN micro-LED fabrication brings advanced materials capability, while Suchi’s assembly and test plant supports volume supply for industrial and automotive electronics.

The Metalnomist Commentary

India’s semiconductor strategy is becoming more materials-driven, with GaN now entering the centre of its manufacturing push. The real test will be whether India can connect fabrication, epitaxy, packaging and design into a reliable domestic supply chain rather than isolated projects.

Tower Semiconductor InP Wafer Deal Secures AI Photonics Supply

iQE

Tower Semiconductor InP wafers will be supplied by UK-based IQE under a long-term agreement supporting next-generation optical connectivity products for artificial intelligence data centres. The deal strengthens Tower's access to indium phosphide epiwafers as demand for high-speed photonics accelerates.

Tower Semiconductor InP wafers will be used across several silicon photonics platforms, including technology for 200 Gb/s per lane optical transceivers and prototype 400 Gb/s per lane modulators. These components are designed to handle the rapidly increasing data requirements of AI training and inference systems.

Tower Semiconductor InP wafers have become strategically important because AI data centres require faster connections between servers, switches and accelerators. Indium phosphide is particularly suited to lasers and modulators operating at optical communications wavelengths.

The agreement includes minimum purchase commitments from Tower and reciprocal supply obligations from IQE, giving both companies greater visibility as they prepare for higher production volumes.

AI Data Centres Accelerate InP Photonics Demand

AI infrastructure is pushing optical networking requirements beyond traditional telecom applications. Larger computing clusters need higher bandwidth while also reducing the amount of electricity consumed moving data between processors.

InP plays a central role because it can efficiently generate and manipulate light for high-speed optical transmission. This makes it valuable for lasers, modulators and other photonic devices integrated with silicon-based platforms.

Tower plans to use IQE material for 200 Gb/s per lane pluggable transceivers and is also developing 400 Gb/s per lane modulators. Optical circuit switching represents another potential application as hyperscale data centres seek more efficient network architectures.

Commercial commitments are already building around Tower's expansion. The company has signed $1.3bn of silicon photonics contracts linked to 2027 revenue and received $290mn in customer prepayments to reserve production capacity.

These figures highlight how optical connectivity is becoming a major infrastructure bottleneck alongside processors, memory and power supply.

Supply Commitments Highlight Tight InP Capacity

The agreement is also important because global InP wafer availability remains constrained. IQE has been working with multiple suppliers to secure enough material as semiconductor manufacturers compete for capacity.

The minimum volume commitments give IQE a clearer demand base for future investment while providing Tower with greater supply certainty.

IQE recently secured investment and purchase commitments from US semiconductor manufacturer Macom, helping the company avoid a potential sale and reinforcing its position in the compound semiconductor market.

As hyperscalers such as Amazon and Google continue expanding AI infrastructure, more semiconductor manufacturers may seek long-term contracts to secure InP supply.

The Tower-IQE deal therefore reflects a broader shift in the semiconductor supply chain. Access to advanced materials is becoming as strategically important as chip fabrication capacity itself.

Under a separate agreement, Tower will also provide IQE with a worldwide royalty-free licence covering porous silicon patents, resolving previous intellectual property litigation between the companies.

The Metalnomist Commentary

InP is moving from a specialist telecom material into a core AI infrastructure input. As optical bandwidth requirements rise, long-term wafer supply agreements could become increasingly important to securing semiconductor capacity.

US-China critical minerals trade masks big strategic risks

US-China Critical minerals

The US-China critical minerals trade looks small in dollar terms but carries outsized strategic risks for key industries. The US-China critical minerals trade was worth just $2bn in 2024, only 3pc of US critical mineral imports. However, the US-China critical minerals trade underpins defence, high-tech manufacturing and energy systems that generate trillions in economic value.

Small trade volumes, large exposure to China

Macquarie research shows US critical mineral imports totalled $65bn in 2024 under the new 60-mineral list. Bulk materials like aluminium, copper and PGMs dominate the import bill and come mainly from partners such as Canada and Chile. By contrast, China supplied only $2bn, far below Canada’s $21bn or Chile’s $6.6bn.

However, China’s leverage rests in concentration, not value. It controls about 70pc of global rare earth mining and 90pc of processing. As a result, even small tonnages of Chinese exports can be mission-critical for US defence and advanced manufacturing. Any targeted export controls could therefore disrupt high-value supply chains well beyond the trade numbers.

Export controls could hit US GDP and strategic sectors

Macquarie estimates Chinese export controls on select minerals could each cut US GDP by more than $1bn in a year. Samarium restrictions show the highest impact, at an estimated $4.5bn loss, because of its critical role in defence. Meanwhile, curbs on lutetium could shave $2.1bn from GDP, mainly affecting refineries and semiconductor producers.

Controls on terbium, dysprosium and gallium would similarly reverberate across magnets, EV motors, wind turbines and high-frequency electronics. Therefore the economic risk from the US-China critical minerals trade lies in concentrated choke points, not headline trade flows. That reality is now shaping US industrial policy, stockpiling strategies and onshoring of processing capacity.

The Metalnomist Commentary

This analysis reinforces why Washington treats rare earths and related metals as strategic assets, not simple commodities. Even modest Chinese export controls could ripple through defence, semiconductor and energy transition value chains. Expect continued moves by the US and allies to diversify sourcing, build domestic refining and expand recycling to reduce this asymmetric exposure.

InP and GaN Wafer Supply Deal Strengthens Macom’s Compound Semiconductor Chain

Macom

InP and GaN wafer supply has become a strategic priority for Macom Technology Solutions as the US semiconductor manufacturer invests in UK-based compound semiconductor wafer supplier IQE. The investment secures long-term epitaxial wafer services and strengthens Macom’s access to materials used in photonics, defence, satellites and 5G telecom systems.

Macom has committed £45mn as part of an £81mn investor package for IQE. The financing includes £23mn of reinvestment from convertible loans and will allow IQE to repay debt while funding core technologies such as indium phosphide and gallium nitride.

InP and GaN wafer supply is increasingly important because both materials sit at the centre of high-performance semiconductor applications. Indium phosphide supports optical transmission and silicon photonics, while gallium nitride enables high-frequency, high-power radio frequency and defence electronics.

The investment also allows IQE to end its strategic review. The company had considered selling or spinning out operations in Taiwan and later examined a possible full sale of the business. Those discussions have now been terminated.

Macom Secures Materials for Photonics and Data Centres

Macom said it will sign long-term supply agreements with IQE across multiple epitaxial technologies. These agreements will support scalable, high-volume manufacturing and strengthen supply-chain resilience.

This matters because AI data centres are driving rapid growth in optical transmission technologies. As computing loads rise, data centres need faster and more energy-efficient data movement between chips, servers and racks.

Indium phosphide is a critical material for lasers and photonic components used in optical networks. It has become a key bottleneck as demand from AI infrastructure, cloud computing and high-speed communications accelerates.

Macom’s strategy includes expanding laser and silicon photonic-based optical transmission products. Long-term InP and GaN wafer supply from IQE gives the company more confidence as it scales these technologies.

IQE also benefits from the arrangement. The funding improves its balance sheet and gives the wafer supplier stronger customer visibility from an existing key customer.

For the compound semiconductor industry, the deal shows how customers are moving closer to upstream wafer suppliers. Securing epitaxial capacity is becoming as important as chip design when materials availability is tight.

GaN Demand Links Defence, Satellites and 5G

Gallium nitride is another core part of Macom’s growth strategy. GaN is used in radio frequency sensors, amplifiers and other components for defence, satellite and 5G telecom systems.

These applications require materials that can handle high power, high frequency and demanding operating conditions. GaN offers performance advantages over conventional silicon in several advanced RF and power applications.

Macom is also developing advanced GaN-on-silicon processes and installing new equipment to modernise and expand manufacturing capabilities. This points to a broader push to scale production while improving cost and process efficiency.

IQE’s manufacturing footprint gives the partnership wider supply-chain relevance. The company operates two sites in south Wales, a facility in Milton Keynes, four plants in the US and operations in Taiwan.

IQE expects revenue to grow by more than 20% in 2026. The company cited strong demand from AI and data-centre photonics, laser and wireless products for smartphones, and continued strength in aerospace and defence.

The transaction also gives Macom a governance role, as the company will join IQE’s board. This deepens the relationship from customer-supplier contracting into strategic influence.

InP and GaN wafer supply will remain critical as semiconductor demand becomes more materials-intensive. Data centres, defence electronics, satellites and telecom infrastructure all need reliable compound semiconductor capacity.

The Metalnomist Commentary

Macom’s investment in IQE shows that semiconductor supply security is moving upstream into compound wafer materials. As AI data centres and defence RF systems expand, control over InP and GaN capacity will become a strategic advantage, not just a procurement issue.

Hemlock Semiconductor to Receive $325 Million for New Facility Under CHIPS Act

Hemlock Semiconductor

Hemlock Semiconductor (HSC), the only U.S.-based producer of hyper-pure polysilicon, has been preliminarily granted $325 million in funding under the CHIPS Act by the U.S. Department of Commerce. This funding aims to boost domestic semiconductor manufacturing and reduce reliance on international supply chains.

The grant, currently in a non-binding preliminary memorandum of terms phase, is intended to support the construction of a new manufacturing facility on HSC's existing campus in Hemlock, Michigan. The facility will focus on increasing the production of hyper-pure polysilicon, a critical material used in artificial intelligence (AI) chips, microprocessors, and memory devices.

Economic Impact

If finalized, the investment is expected to generate nearly 180 high-skill manufacturing jobs and over 1,000 construction jobs, significantly contributing to the local economy.

The Role of the CHIPS Act

The CHIPS Act, a landmark U.S. policy initiative, is designed to fund domestic research and manufacturing of semiconductors to enhance national security and technological competitiveness. HSC’s expanded capacity under this program will play a pivotal role in meeting the growing demand for semiconductor-grade materials in emerging technologies.

This strategic investment reinforces HSC's position as a critical player in the U.S. semiconductor supply chain, supporting advancements in artificial intelligence, computing, and other high-tech applications.

Asia Semiconductor Demand for AI Data Centres Surges on Regional Infrastructure Expansion

AI

Asia semiconductor demand for AI data centres is accelerating rapidly, driven by generative AI development, regional cloud infrastructure investment, and rising demand for high-bandwidth memory and logic chips. The shift marks a geographic rebalancing in semiconductor orders, which were previously centered on U.S. data centre growth.

AI, HBM, and Logic Chips Drive Semiconductor Orders in Asia

Dutch semiconductor equipment maker BESI reported increased orders from Asian subcontractors in Q1 2025, specifically for AI-related data centre applications. Orders rose 3.3% year-over-year and 8.2% quarter-over-quarter, even as other segments like mobile and automotive remained weak.

AI-centric devices are boosting demand for advanced semiconductor packaging, especially for high-bandwidth memory (HBM) 4 and logic chips. BESI received hybrid bonding orders from two memory producers and additional logic chip orders from an Asian foundry, underscoring regional momentum. Compound semiconductors and minor metals remain essential to meet AI’s performance, efficiency, and optical communication needs.

Chinese data centres, in particular, are preparing for broader adoption of optical technologies and laser detectors as they scale capacity to support domestic AI models like DeepSeek.

China, Singapore, and Malaysia Lead AI Data Centre Build-Out

China is rapidly scaling its AI data centre footprint. GLP, a Singapore-China investment firm, raised ¥2.6bn ($356.7mn) for a Beijing-area data centre and controls 20 data centres with a total capacity of 1.4GW across major regions. This expansion is backed by Chinese policy support for AI, cloud, IoT, and 5G development, with the country’s data centre market forecast to grow at a 38% CAGR through 2029.

Singapore remains southeast Asia’s largest data hub, hosting 1.4GW of capacity with expansion plans. However, regulatory restrictions on power and land usage are slowing growth. Meanwhile, Johor, Malaysia, is emerging as a new hotspot, with projected capacity of 1.6GW—poised to surpass Singapore.

Chinese firms have invested over $10bn in Malaysian data centres since 2019. Companies like ByteDance and Alibaba Cloud are leveraging Malaysia’s semiconductor-friendly environment to bypass U.S. export controls and support international operations.

The Metalnomist Commentary

The boom in Asia semiconductor demand for AI data centres signals a decisive shift in global digital infrastructure. As U.S. restrictions reshape supply chains, Asia is emerging as the new battleground for AI-optimized semiconductor and data centre development—anchored by domestic innovation and strategic capital deployment.

Wolfspeed Secures $2.5B Funding to Expand Silicon Carbide Production in the US

Wolfspeed

Wolfspeed, a prominent US-based semiconductor manufacturer, is poised for significant expansion, targeting a $2.5 billion funding pool to boost its silicon carbide (SiC) production. This strategic move is aimed at addressing the surging demand from electric vehicle (EV) manufacturers and other industries reliant on SiC technology.

Key Funding Milestones

Wolfspeed has entered into a preliminary memorandum of terms (PMT) with the US Commerce Department, securing up to $750 million in direct funding under the Chips and Science Act. To meet the conditions for full funding, the company has also obtained $750 million in financing from a consortium of investment funds.

An additional $1 billion is expected in cash rebates through the advanced manufacturing tax credit provided by the Chips and Science Act. This credit allows companies to claim up to 25% of qualified capital expenditures, further bolstering Wolfspeed’s financial framework.

The funds will enable Wolfspeed to achieve two critical objectives:

Construction of a new SiC wafer manufacturing facility in Siler City, North Carolina.

30% expansion of its SiC power device production plant in Marcy, New York.

These projects are set to create the world’s largest 200mm SiC production footprint, serving key sectors such as automotive, industrial, and energy.

Supporting the EV Revolution

Silicon carbide is a pivotal material for the EV industry due to its superior efficiency in power conversion and thermal management. Wolfspeed’s expanded production capacity aims to solidify its leadership in the SiC market, addressing the rapidly increasing demand driven by global EV adoption.

Driving US Semiconductor Leadership

Wolfspeed’s ambitious initiatives align with the US government’s objectives under the Chips and Science Act, which seeks to strengthen domestic semiconductor manufacturing capabilities. These projects also underscore the growing importance of public-private partnerships in ensuring the US maintains its competitive edge in the global semiconductor industry.

With this funding in place, Wolfspeed is well-positioned to lead the SiC revolution, supporting advancements in clean energy, EV technology, and industrial applications.

Pax Silica silicon supply chain initiative reshapes US semiconductor partnerships

Pax Silica

The Pax Silica silicon supply chain initiative signals a new US push to secure silicon inputs. The US will partner with Japan, South Korea, Singapore, and other allies. Therefore, the Pax Silica silicon supply chain initiative links minerals, energy, and manufacturing into one strategy.

The initiative targets upstream security across the silicon value chain. It aims to secure critical mineral and energy inputs for silicon processing. Meanwhile, it also promotes downstream joint ventures for chips and AI infrastructure.

Pax Silica targets refining, processing, and infrastructure buildout

The plan prioritizes new mineral refining and processing capacity. It also supports expansion of data centers and fiber optic cables. As a result, the Pax Silica silicon supply chain initiative connects material supply to digital buildout.

Polysilicon sits at the center of this effort. Polysilicon reaches ultra-high purity and feeds silicon wafer production. Therefore, the US polysilicon supply chain matters for AI chips and advanced semiconductors.

US demand for AI chips exposes supply concentration risks

US wafer capacity gaps now collide with surging AI demand. Industry data says a small group of suppliers dominates global wafer output. However, current US-based production cannot meet rising domestic AI needs.

The partnership list also signals strategic alignment beyond manufacturing. It pairs trusted jurisdictions with investment in processing and infrastructure. Meanwhile, it raises the bar for traceability, resilience, and speed across the silicon supply chain.

The Metalnomist Commentary

This initiative will reward projects that lock in low-cost power and reliable refining capacity. However, permitting timelines and technology transfer terms will decide real supply growth. Therefore, buyers will track near-term contracts more than long-term diplomacy.

US Government Takes 10pc Stake in Intel Amid Chip Strategy

Intel

Washington Pushes Semiconductor Independence

US president Donald Trump confirmed that the government acquired a 10pc stake in Intel, worth about $11bn. He emphasized that the US “paid nothing” for the shares. The move comes alongside the administration’s broader push to expand domestic semiconductor production.

Trump previously announced a 100pc tariff on all chip and semiconductor imports. However, companies currently building or committed to building plants in the US will be exempt from the charge. This strategy reflects efforts to strengthen US energy and technology security while reducing dependence on foreign chip supply.

Government Expands Strategic Holdings in Key Sectors

The Intel stake is not the first direct government involvement in industry under Trump. The administration took a “golden share” during Nippon Steel’s acquisition of US Steel. In another case, the Department of Defense invested $400mn in rare earth producer MP Materials, securing a 15pc stake.

Such actions demonstrate a pattern of strategic intervention in critical supply chains. By aligning government investment with national security priorities, Washington signals that semiconductors now rank alongside steel and rare earths as essential for long-term resilience.

The Metalnomist Commentary

The US government’s stake in Intel underscores the growing overlap between industrial strategy and national security. As tariffs reshape global trade, semiconductors remain central to technological leadership and geopolitical competition.

First Solar Module Guidance Holds as US Solar Manufacturing Scales

First Solar

First Solar module guidance remains unchanged for 2026 as the US thin-film solar manufacturer continues expanding domestic production while managing trade and policy uncertainty. The company expects to sell 17-18.2GW of modules this year, supporting projected sales of $4.9bn-5.2bn.

First Solar module guidance was reaffirmed after first-quarter module sales reached 3.8GW. Sales totalled slightly more than $1bn, up from $845.6mn a year earlier.

First Solar module guidance also reflects strong demand across the US and India. The company booked $1.7bn of new orders in the first quarter, showing that solar demand remains robust despite uncertainty around tariffs, investigations and energy policy.

The company expects second-quarter module sales of 3.4-4GW. Its contracted backlog stood at 47.9GW at the end of the quarter, worth about $14.4bn, with deliveries scheduled through 2030.

Trade Policy Shapes US Booking Strategy

First Solar said it will take a highly selective approach to US bookings while waiting for key trade policy outcomes. The company is watching the Section 232 investigation into polysilicon imports and the Section 337 investigation into solar cells and modules.

This matters because US solar manufacturing is increasingly shaped by trade rules, tax credits and reshoring policy. Producers must balance demand growth with the risk that tariff changes could alter pricing, margins and customer decisions.

First Solar produced 4.3GW of modules in the first quarter. Around 3GW came from US facilities, while 1.3GW came from international operations.

The company’s US plants ran at a 96% utilisation rate. By contrast, its Malaysia and Vietnam facilities remained underutilised because of tariff and policy uncertainty.

That split shows the advantage of domestic production in the current policy environment. US-made modules can benefit from stronger customer confidence, tax incentives and lower exposure to trade restrictions.

First Solar also expects Section 45X tax credits of $330mn-400mn in the second quarter, assuming the current US policy environment remains in place. These credits are a major support for domestic solar manufacturing economics.

Domestic Expansion Supports Reshoring Strategy

First Solar’s South Carolina finishing facility is expected to start production in the second half of this year. The facility will provide finishing capacity for Series 6 modules that begin production at overseas factories.

This expansion supports First Solar’s broader reshoring and localisation strategy. It allows the company to increase US-linked manufacturing content while maintaining flexibility across its global production network.

The company also completed the launch of its copper replacement technology at its Perrysburg, Ohio, facility at the end of the first quarter. This supports product development and manufacturing efficiency.

First Solar’s profit rose by 65% to $346.6mn in the first quarter. The increase shows that strong sales, high US utilisation and policy support are improving earnings.

The wider market signal is clear. Solar module demand remains strong, but the competitive landscape is being reshaped by trade investigations, domestic incentives and regional manufacturing strategies.

For materials and supply chains, this matters because solar production depends on stable access to glass, semiconductor materials, metals, chemicals, laminates and high-quality manufacturing equipment. Policy uncertainty can therefore influence not only module sales, but upstream material demand and factory utilisation.

First Solar’s maintained guidance shows confidence in demand. But the company’s selective booking strategy also shows that solar manufacturing is now as much about policy positioning as production capacity.

The Metalnomist Commentary

First Solar’s quarter shows that US solar manufacturing is being pulled forward by demand, tax credits and reshoring policy. The strategic risk is that trade uncertainty may keep global capacity underused even while domestic factories run near full utilisation.

China Imposes Export Restrictions on Key Metals to the US Amid Trade Tensions

China's ministry of commerce

China has announced a significant decision to suspend exports of several critical metals to the United States, escalating trade tensions between the two global economic powerhouses. Effective immediately, exports of gallium, germanium, and antimony are halted, and stricter inspections are enforced on graphite exports, as per the directives issued by China's Ministry of Commerce on December 3rd.

Trade Implications and US Reliance on Chinese Metals

China, categorizing these materials as "dual-use" items, indicates their potential use in both civilian and military applications. The immediate prohibition of gallium and germanium exports could severely impact the US economy, given its substantial reliance on these metals for various technological and industrial applications. According to the US Geological Survey, a complete cessation could lead to a sharp decline in the US Gross Domestic Product (GDP) by approximately $3.1 billion within a year, potentially reaching $3.4 billion if germanium exports are also completely halted.

The US has been heavily dependent on Chinese supplies of these metals, with antimony imports from China constituting 22% of total US imports from January 2022 to October 2024. Antimony trioxide imports from China during the same period accounted for 69% of the total US intake.

Global Supply Chain and Economic Ramifications

This strategic move by Beijing is a direct countermeasure against the United States' third crackdown on China's semiconductor industry, which involved placing restrictions on semiconductor exports to 140 Chinese companies just a day before, on December 2nd. These restrictions by the US have been described by China's commerce ministry as a politicization and weaponization of economic and technological issues, severely undermining the stability of global supply chains and international trade rules.

China's stern response also includes new legislations passed in late October and a comprehensive list issued in mid-November aimed at controlling exports of dual-use items. With the new measures, exports to any US buyers with military end-use are explicitly prohibited.

Metallium Gallium Recovery Project Advances US Critical Minerals Recycling

Australian Metallium

Metallium gallium recovery project plans have moved forward after the Australian recycling firm completed the first phase of a US Department of Defense contract ahead of schedule. The company is developing a process to recover gallium from complex waste streams, including semiconductor scrap and electronic waste.

The project is strategically important because gallium is essential for semiconductors, military systems, optics and advanced electronics. Global supply remains highly concentrated, with China accounting for nearly all primary gallium production.

Metallium gallium recovery project development comes as China’s export controls have intensified competition for non-China supply. Higher prices and stronger defense-related demand are making recovery technologies more commercially relevant.

Flash Joule Heating Targets Low-Concentration Gallium Streams

Metallium is using its proprietary Flash Joule Heating process to recover trace gallium from steel, alloy scrap, semiconductor scrap and electronic waste. The company also aims to recover germanium and other critical minerals in later phases.

End-of-life gallium recycling remains difficult because the metal is present in very small quantities once used in finished products. This makes recovery technically challenging and usually uneconomic unless prices, feedstock access and process efficiency improve together.

Metallium can now apply for Phase II funding of up to $1mn to advance pilot-scale operations. The company expects to start full commercial operations at its Texas facility this year.

Feedstock Deals Strengthen US Recycling Scale-Up

Metallium gallium recovery project scaling is supported by both government funding and private capital. The company raised $55mn from investors in June to accelerate commercial development.

Glencore will supply 2,400 t/yr of electronic waste, becoming Metallium’s major feedstock supplier and offtake partner. This agreement gives the Texas facility a clearer route to steady input material, which is critical for recycling economics.

Metallium also signed a deal last week to supply US-based metals refiner and manufacturer Indium with several recovered metals from its US recycling operations. Together, these agreements help connect scrap collection, recovery technology and downstream advanced materials demand.

Gallium prices have risen by 175% year on year and remain supported by firm demand and limited ex-China availability. That price environment improves the case for niche recycling projects, especially where defense and semiconductor supply security are involved.

The Metalnomist Commentary

Metallium’s project shows that critical mineral security will increasingly depend on recovering trace metals from complex waste streams. Gallium recycling will not replace primary supply quickly, but it can become a strategic buffer for defense, semiconductor and optics supply chains.