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Why Is Found Industries’ Technology Particularly Important Now?
Because US dependence on China for gallium, a critical semiconductor material, has reached dangerous levels. Gallium is the base material for gallium nitride (GaN) and gallium arsenide (GaAs) semiconductors, widely used in 5G communications, radar systems, and high-efficiency power chips. According to the US Geological Survey (USGS), over 80% of global gallium production comes from China, while the US has virtually no commercial gallium production. Found Industries’ electrochemical extraction technology can recover gallium from bauxite refining waste, directly bypassing China’s supply monopoly.
| Technology | Application Areas | Current Supply Chain Risk | Found Solution |
|---|---|---|---|
| Electrochemical Gallium Extraction | Semiconductors, Photovoltaics, Solar Panels | 80%+ dependence on China | Recover from bauxite waste, build domestic production lines |
| Catalytic Aluminum Fuel | Distributed Power Generation, Military Energy | Large amounts of aluminum waste landfilled | Convert waste aluminum into high-density hydrogen fuel |
| Critical Metal Recovery | Aerospace, EV Batteries | Unstable rare earth metal supply | Integrate extraction of multiple metals, reduce import demand |
This is not just a battle of technological routes; it is about whether the US can truly gain a foothold in the wave of semiconductor independence.
How Does Aluminum Fuel Move from Lab to Commercialization?
Peter Godart’s team discovered a catalyst that makes aluminum shavings react with water orders of magnitude faster than traditional methods, achieving power density at the megawatt level. This breakthrough means that aluminum shavings, previously considered waste, can now become a portable hydrogen energy carrier. Found Industries has already operated a 100-kilowatt demonstration plant and plans to launch an industrial-scale pilot deployment next year.
The operating principle is straightforward: aluminum reacts with water to release hydrogen, which can generate electricity through fuel cells or gas turbines. The key is that Godart’s catalyst dramatically increases the reaction rate, turning this process from theoretically feasible to practically usable. The strategic significance of this technology lies in the fact that aluminum is one of the most common metals globally, and waste aluminum supply is abundant—the US generates over 5 million tons of aluminum waste annually, most of which is landfilled or low-grade recycled.
graph TD
A[Waste Aluminum Shavings] --> B[Catalytic Reactor]
C[Water] --> B
B --> D[Hydrogen]
B --> E[Aluminum Oxide]
D --> F[Fuel Cell]
F --> G[Electricity]
E --> H[Recycle to Aluminum Smelting]
H --> A
This is a closed-loop system: waste aluminum becomes fuel, and the resulting aluminum oxide can be sent back to smelters to be remade into aluminum metal. If deployed at scale, this cycle can simultaneously solve waste problems and energy storage challenges.How Does Gallium Extraction Technology Break China’s Monopoly?
Found Industries’ electrochemical technology can extract gallium from bauxite refining waste (red mud) with much higher efficiency than traditional chemical extraction. Red mud is a byproduct of bauxite refining for alumina, with about 150 million tons produced globally each year, mostly stored in waste ponds, taking up space and polluting the environment. Found’s technology not only recovers gallium but can also extract other valuable metals like vanadium and titanium.
The economic and strategic value of this technology is equally striking. Currently, China’s gallium production cost is about $300 per kilogram, while Found estimates its technology can reduce costs to below $250 per kilogram at scale. More importantly, the US Department of Energy (DOE) has already provided funding, aiming to establish a domestic production line capable of producing 10 tons of gallium per year by 2028—about 30% of the current demand from the US semiconductor industry.
| Country | 2025 Gallium Production (tons) | Global Share | Main Applications |
|---|---|---|---|
| China | 420 | 82% | GaN semiconductors, LEDs, Solar |
| Japan | 35 | 7% | Optoelectronic components |
| Germany | 20 | 4% | Special alloys |
| Found Target | 10 (2028) | 2% | Defense and semiconductors |
Although this number is modest, the strategic significance is that the US no longer needs to rely entirely on Chinese supply, especially for sensitive applications like military radar and communication systems.
Who Will Benefit from This Supply Chain Revolution?
Semiconductor manufacturers, defense contractors, and energy companies will be the biggest winners. For semiconductors, demand for GaN power chips is growing at 25% annually, driven by electric vehicles and 5G infrastructure. If Found can stably supply domestic gallium, GaN chip giants like Qorvo and Wolfspeed could significantly reduce supply chain risks.
The defense sector benefits even more directly. The US Department of Defense has classified gallium as a critical material because the radar systems of F-35 fighter jets, satellite communications, and electronic warfare equipment all rely on GaN components. Found’s technology can ensure a stable supply of raw materials for these systems during supply chain disruptions.
Energy companies can benefit from aluminum fuel technology. Imagine an off-grid base station or remote mine that does not require laying cables—just transport aluminum shavings and water to generate continuous power. This is highly valuable for military logistics, disaster response, and humanitarian aid in developing countries.
graph LR
A[Found Industries] --> B[Semiconductor Manufacturing]
A --> C[Defense Systems]
A --> D[Energy Companies]
B --> E[GaN Power Chips]
C --> F[Radar and Communications]
D --> G[Off-Grid Power Generation]
D --> H[Hydrogen Transportation]What Real-World Challenges Does This Technology Face?
Scaling up and cost control are the biggest bottlenecks, but not insurmountable. From lab to commercialization, all advanced materials technologies face the same issue: feasible at small batches, but when scaled to industrial levels, purity, yield, and energy consumption can vary. Found’s electrochemical extraction technology performed well in 100-kilogram tests, but reaching an annual output of 10 tons requires new reactor designs and process optimization.
The challenge for aluminum fuel lies in energy density and system integration. Although aluminum’s theoretical energy density is high (about 23.5 MJ/kg), actual systems considering reactor weight, water supply, and hydrogen storage will have lower overall efficiency. Found claims its system can achieve megawatt-level power output, but this requires full testing and validation.
Additionally, market acceptance is an issue. Semiconductor manufacturers are typically very conservative about new supply sources, requiring lengthy certification and testing. Found must prove that its gallium purity can reach 99.9999% or higher semiconductor-grade standards, which requires close collaboration with downstream customers.
How Does Geopolitics Accelerate Found’s Commercialization?
The technology competition between the US and China is creating unprecedented policy dividends for Found. The CHIPS and Science Act of 2022 allocated $52 billion in subsidies for semiconductor manufacturing, with a portion explicitly for critical materials supply chains. Found has already received DOE support and is likely to apply for CHIPS Act funding in the future.
More importantly, China imposed export controls on gallium in 2023, directly threatening the US semiconductor industry. This has turned Found’s technology from “promising” to “must succeed.” The National Defense Authorization Act (NDAA) also requires the Department of Defense to prioritize domestic sourcing of critical materials, providing Found with stable early customers.
From a business strategy perspective, Found should prioritize serving defense and aerospace customers, as these sectors are less price-sensitive and have the highest requirements for supply chain security. Once reputation and scale are established, Found can gradually enter the consumer semiconductor market.
What Does This Mean for Taiwan’s Semiconductor Industry?
Although Taiwan’s semiconductor industry does not directly rely on gallium (mainly using silicon), changes in the gallium supply chain will still have indirect effects. Taiwan’s GaN chip design and manufacturing companies, such as Win Semiconductors and Visual Photonics, currently still need to import gallium substrates from China or Japan. If Found successfully establishes a US supply chain, these companies can have an additional supply option, reducing geopolitical risks.
In the longer term, Found’s technology model—turning waste into strategic resources—is worth emulating for Taiwan. Taiwan generates a large amount of electronic waste each year, containing precious metals like gold, silver, and rare earths. If similar electrochemical recovery technologies can be developed, it could not only reduce environmental burden but also build its own critical materials stockpile.
| Taiwan Affected Industry | Current Supply Source | Potential Impact of Found Technology |
|---|---|---|
| GaN Wafer Foundry | China, Japan | Adds US supply option, reduces risk |
| Power Management IC | China | Raw material diversification, price competition |
| Defense Electronics | China | Access to reliable ally supply chain |
| LED Manufacturing | China | Long-term cost may decrease |
Found Industries’ Development Roadmap for the Next Five Years
Short-term (2026-2027): Complete industrial-scale pilot plant, verify the economics of gallium extraction and reliability of aluminum fuel system. Goal is to sign supply agreements with 1-2 major semiconductor companies and establish the first 10-ton-per-year gallium production line with DOE support.
Mid-term (2028-2030): Expand capacity to 50 tons of gallium per year, while launching commercial deployment of aluminum fuel. Potential customers include the US Army (remote base power generation) and telecom companies (off-grid base stations). Found may also license technology to aluminum giants like Alcoa or Rio Tinto, integrating waste recovery into existing production processes.
Long-term (2031+): Become a core player in the US critical metals supply chain and expand to other metal recovery (e.g., vanadium, titanium). If successful, Found’s business model can be replicated in regions like the EU and Australia that also have bauxite waste issues.
FAQ
What is Found Industries’ core technology?
Two main technologies: electrochemical gallium extraction from bauxite waste, and catalytic aluminum fuel that reacts aluminum with water to produce high-density hydrogen energy.
How does this technology impact the semiconductor industry?
Gallium is a key raw material for GaN and GaAs semiconductors. The US currently relies heavily on Chinese imports, and Found’s technology could establish a domestic supply chain.
How does aluminum fuel work?
Through a special catalyst, aluminum shavings react rapidly with water to release hydrogen, which can be used for power generation, with power density orders of magnitude higher than traditional methods.
What is the commercialization progress of Found Industries?
A 100-kilowatt demonstration plant is already operating, with industrial-scale pilot deployment expected next year, supported by the US Department of Energy.
What are the environmental benefits of this technology?
The aluminum fuel cycle recycles waste aluminum, reducing landfill waste; gallium extraction reduces mining demand, with overall lower carbon emissions compared to traditional methods.
