Critical Minerals Geopolitics: The Resource Wars Shaping the AI Economy

"The AI economy runs on silicon and electricity. Both run on minerals. The nation that controls the minerals controls the transition." — Tressler's Trading Division Research Brief, Q2 2026

00. Transmission Header

CLASSIFICATION : Tresslers Group Intelligence // Tressler's Trading Division
DOMAIN         : Critical Minerals / Geopolitics / Resource Strategy / Trade Intelligence
STATUS         : Active Intelligence — Regulatory and Geopolitical
DATE           : 2026.05.10
REGULATORY REF : USGS 2025 Critical Minerals List: 60 minerals (expanded from 50 in 2022)
                 China gallium/germanium controls: August 1, 2023 (initial)
                 China graphite controls: December 1, 2023
                 China US-specific prohibition: December 2024
                 China suspension to Nov 2026: November 9, 2025
ALERT LEVEL    : Critical — Dynamic control regime; monitoring required continuously

The artificial intelligence economy rests on a physical substrate that almost no one in the AI industry talks about: the raw materials that make processors, batteries, motors, and transmission infrastructure possible. Every GPU in every data center requires gallium arsenide in compound semiconductors. Every EV battery that charges the autonomous vehicle fleet requires lithium, cobalt, and graphite. Every rare earth element that makes a high-performance motor or a wind turbine or a defense guidance system requires mining, processing, and refinement that takes place in a small number of geographies — many of which are controlled by a single nation.

That nation is China.

This is not hyperbole. China controls approximately 60% of global rare earth mining and approximately 85% of global rare earth processing. For gallium and germanium — materials critical to semiconductors and 5G infrastructure — China's production share is 70–80%. For graphite — the primary anode material in lithium-ion batteries — China controls 65–75% of global production.

In August 2023, China exercised this control. In December 2023, it exercised it further. In December 2024, it drew a direct line to the US trade conflict. And in November 2025, in a diplomatic gesture that expires in November 2026, it partially suspended the restrictions.

The control architecture is temporary. The strategic dependency is structural.

01. The 2025 US Critical Minerals List — The Official Framework

The US Geological Survey (USGS) maintains the official US Critical Minerals List — the regulatory foundation for minerals strategy, stockpiling policy, and supply chain resilience programs. In 2025, the list was expanded:

USGS 2025 Critical Minerals List:

• ▸Total: 60 mineral commodities (expanded from 50 in the 2022 list)
• ▸10 minerals added: boron, copper, lead, metallurgical coal, phosphate, potash, rhenium, silicon, silver, and uranium
• ▸Definition of "critical": essential to the economic or national security of the US; supply chain characterized by potential for disruption; and no ready substitutes

The expansion to 60 minerals reflects growing recognition that the energy transition and advanced technology industries depend on a broader range of raw materials than previously assessed. Copper's inclusion — a metal mined in massive quantities globally — signals that sheer volume requirements for electrification infrastructure can create scarcity even in historically abundant materials.

02. China's Export Control Architecture — Precise Dates and Scope

The most operationally significant development in critical minerals geopolitics over the past two years is China's systematic deployment of export controls as a trade policy instrument. The timeline is precise and verifiable:

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Why these specific minerals were chosen:

Gallium: 99% pure gallium is required for gallium arsenide (GaAs) and gallium nitride (GaN) semiconductors — used in 5G base stations, satellite communication, defense radar, and high-performance compound semiconductors. Gallium is a byproduct of aluminum smelting, and China controls approximately 70–80% of global production due to its dominant position in primary aluminum production.

Germanium: Used in fiber optic cables, infrared optics, solar cells, and semiconductor production. China controls approximately 60% of global production. Germanium is recovered as a byproduct of zinc smelting and coal combustion — resource streams China dominates at scale.

Antimony: Used in flame retardants, ammunition, and night vision equipment. China controls approximately 50–60% of global production. Its inclusion in the December 2024 controls alongside gallium and germanium signals an expanding resource control strategy.

Graphite: The anode material in essentially all lithium-ion batteries. China controls 65–75% of global graphite mining and an even higher percentage of processed battery-grade spherical graphite. Every EV battery, every grid storage installation, and every data center UPS system that uses lithium-ion chemistry requires graphite from a supply chain that is predominantly Chinese.

The "dual military and civilian use" framing: China's December 2024 US-specific prohibition cited "dual military and civilian uses" as the justification — the same legal framework used for military-grade export controls in most nations. This framing is significant: it positions critical mineral export controls not as trade retaliation but as national security policy — a framing that is harder for trade dispute mechanisms to challenge.

03. The November 2025 Suspension — What It Means and Doesn't Mean

On November 9, 2025, China's Ministry of Commerce announced the suspension of the US-specific prohibition on gallium, germanium, antimony, and superhard materials, effective until November 27, 2026.

What this is: a diplomatic gesture, likely tied to broader US-China trade negotiation dynamics in late 2025. It provides US companies with a 12-month window to resume imports under a licensing regime rather than a prohibition.

What this is not: a structural resolution of the supply dependency. The underlying control architecture — the license requirement system established in August 2023 — remains in place. China retains the legal authority to impose the prohibition again, and the November 2026 expiration creates a hard deadline for reassessment.

The strategic implication: any enterprise planning its supply chain based on the November 2025 suspension as a signal of permanent policy relaxation is making a category error. The suspension is a diplomatic instrument with a defined expiration date. The structural dependency is permanent until alternative supply chains are established — a process measured in years to decades, not months.

04. The Production Concentration Map — Global Dependency Structure

Understanding the full scope of critical mineral concentration requires mapping the landscape systematically:

The processing concentration problem: for rare earth elements, the mining concentration understates the dependency. Even for minerals mined outside China — Australian rare earths, Chilean lithium — the processing, refining, and conversion into usable forms for advanced manufacturing are predominantly concentrated in China. A mine in Australia that produces rare earth ore still ships much of that ore to China for processing into neodymium, dysprosium, and praseodymium — the elements that go into permanent magnets for EV motors and wind turbines.

Building alternative processing capacity requires:

• ▸Capital investment: hundreds of millions to billions per facility
• ▸Lead time: 5–15 years to permit, construct, and commission
• ▸Technical expertise: accumulated over decades in China's rare earth processing industry
• ▸Environmental approvals: rare earth processing generates radioactive waste, creating regulatory friction in Western nations

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05. The AI Economy's Physical Dependency — The GPU and Battery Connection

The AI economy's critical minerals dependency is direct and specific:

GPU Manufacturing (NVIDIA H100/H200, AMD MI300, custom ASICs):

• ▸Gallium: used in compound semiconductor layers in high-electron-mobility transistors (HEMTs) in the power electronics within GPU server infrastructure
• ▸Germanium: used in SiGe (silicon-germanium) transistors and in high-performance fiber optic transceivers connecting GPU clusters
• ▸Rare earth elements: neodymium and dysprosium in the permanent magnets of the cooling fans and motor systems in server infrastructure; indium in displays
• ▸Copper: approximately 3–5 kg of copper per GPU server (power delivery, cooling, interconnects)

Data Center Infrastructure:

• ▸Each hyperscale data center of the scale being built in 2025 (100MW+) requires: thousands of tonnes of copper, rare earth magnets in cooling systems, and lithium-ion batteries in UPS systems (graphite-dependent)
• ▸The hyperscalers' combined $350–410B capex in 2025 translates directly into massive demand for these minerals — demand that flows through supply chains with the concentration profile described above

EV and Autonomous Vehicle Fleet:

• ▸Every EV battery (60–100 kWh) contains approximately: 8–10 kg lithium, 14–30 kg cobalt (NMC chemistry) or minimal cobalt (LFP chemistry), 25–50 kg graphite (anode), 30–60 kg nickel, 10–15 kg manganese
• ▸The autonomous vehicle transition assumed in the agentic fleet vision requires not just AI software but electrified physical vehicles — each with this mineral footprint

The convergence: the AI economy (data centers for model training and inference) and the clean energy transition (EVs, grid storage, renewable generation) are simultaneously competing for the same minerals from the same concentrated supply chains. The demand pressure from both transitions simultaneously is creating mineral market dynamics with no historical precedent.

06. The US and Allied Response — What Is Actually Happening

Legislative and policy response:

The Mineral Security Partnership: established in 2022, MSP now includes Australia, Canada, Finland, France, Germany, India, Italy, Japan, Norway, South Korea, Sweden, United Kingdom, and the United States. It is the closest analog to a "NATO for minerals" — a coordinated allied framework for ensuring supply chain resilience. MSP does not guarantee supply; it provides the diplomatic and financial coordination framework for investment in alternative sources.

The processing infrastructure gap: US policy has been more successful at incentivizing mining and battery manufacturing than at building the intermediate processing layer. A lithium mine in Nevada still requires the ore to be processed; a cobalt mine in Idaho still requires refining. Building the processing infrastructure is the bottleneck, and it requires capital investment, environmental permitting, and technical expertise that takes longer to assemble than the legislative cycles that authorized the investment.

07. Investment and Price Dynamics — The Market Signal Layer

The critical minerals price cycle:

Critical mineral prices are notoriously volatile — subject to demand spikes from technology transitions, supply disruptions from geopolitical events or natural disasters, and speculative positioning. Key observations:

• ▸Lithium: peaked at ~$70,000/tonne in late 2022 driven by EV demand surge; collapsed to ~$12,000–15,000/tonne by 2024 as Chinese supply expansions created oversupply; 2025 sees moderate recovery as demand continues growing
• ▸Cobalt: similarly volatile; DRC political risk creates periodic supply disruptions regardless of global demand levels
• ▸Rare earths: prices depend heavily on Chinese production policy; China has historically used production quotas to manage prices and maintain export control leverage

The mining company investment case:

• ▸Exploration and development of new critical mineral deposits is surging, driven by IRA and CHIPS Act incentives
• ▸Junior mining companies with deposits in politically stable jurisdictions (Canada, Australia, Americas) are attracting premium valuations
• ▸Offtake agreements (pre-purchase commitments from manufacturers) are becoming the financing mechanism for mine development — providing capital security to miners and supply security to manufacturers

The recycling dimension: End-of-life battery and electronics recycling is increasingly economically viable as mineral prices rise. The lithium, cobalt, nickel, and graphite in a spent EV battery pack have material value. US and EU companies including Li-Cycle, Redwood Materials, and Umicore are building recycling infrastructure that could eventually supply 20–30% of North American battery mineral demand from domestic recycled sources — reducing the geopolitical exposure of the primary supply chain.

08. The Intelligence Monitoring Requirement — Continuous Telemetry

The critical minerals geopolitical landscape changes faster than any quarterly analyst report can track. Events requiring immediate intelligence response in 2023–2025 alone:

• ▸August 2023: China gallium/germanium controls — immediate supply chain impact assessment required
• ▸December 2023: China graphite controls — battery supply chain reassessment required
• ▸December 2024: US-specific prohibition — escalation from general to targeted controls
• ▸November 2025: China suspension announcement — diplomatic context assessment; expiration planning

Each of these events required enterprises in semiconductors, defense, automotive, and energy storage to immediately:

1. ▸Assess which of their products use the affected materials
2. ▸Assess current inventory levels and supplier positions
3. ▸Evaluate alternative sourcing options and their availability
4. ▸Adjust procurement strategy and communicate to operations teams

A manual intelligence process — tracking government announcements, translating from Mandarin, assessing supply chain impact — takes days to weeks to produce actionable guidance. An automated monitoring system — scanning Chinese MOFCOM announcements, cross-referencing against supply chain databases, generating structured impact reports — takes hours.

The Tressler's Trading critical minerals monitoring product provides this continuous surveillance: real-time alerts on export control changes, inventory optimization intelligence for affected materials, alternative sourcing analysis, and price signal monitoring across the critical minerals complex.

09. The Long Game — 2030 Supply Chain Sovereignty Scenarios

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The most likely near-term scenario is Managed Dependency — periodic supply disruptions and control regime changes, cyclically managed through diplomatic channels, with gradual but slow allied supply chain diversification. The November 2025 suspension is consistent with this scenario: China demonstrates its control capacity, then exercises diplomatic restraint to maintain trade relationships, while the structural dependency continues.

The critical insight for enterprise planning: do not plan for Scenario 3 (full allied sufficiency) before 2030–2035. Build supply chain resilience for Scenario 1 (managed dependency with periodic disruption) while monitoring for Scenario 2 trigger events. This means maintaining inventory buffers, developing multi-source supplier relationships where alternative sources exist, and investing in recycling infrastructure to reduce primary mineral demand.

10. The Tresslers Group Thesis

The AI revolution is a minerals revolution. The winners of the energy and technology transitions will be those who secured their resource supply chains before the competition for those resources became acute.

The framing of AI as a software industry — foundation models, agent frameworks, deployment platforms — omits the physical infrastructure layer that makes all of it possible. Every GPU that trains a model, every battery that stores renewable energy, every 5G antenna that connects autonomous systems requires specific minerals from specific geographies with specific concentration profiles.

The geopolitical risk in that supply chain is active, not theoretical. China has already exercised its mineral control capacity. The US has already responded with the CHIPS Act and IRA. The Mineral Security Partnership is already coordinating alternative sourcing. The race is underway.

Tressler's Trading provides the intelligence infrastructure for enterprises navigating this landscape: continuous monitoring of the control regime changes, supply chain impact assessment, alternative sourcing intelligence, and the analytical frameworks for making strategic procurement decisions in a dynamically constrained resource environment.

The minerals are the foundation. The intelligence is the leverage.

References & Source Intelligence

1. ▸USGS. (2025). 2025 Final List of Critical Minerals: 60 Mineral Commodities. USGS.gov.
2. ▸China Ministry of Commerce (MOFCOM). (2023, August). Export Controls: Gallium and Germanium — Initial Implementation.
3. ▸China Ministry of Commerce (MOFCOM). (2023, December). Export Controls: High-Grade Graphite.
4. ▸CSIS. (2024). China's December 2024 Export Prohibitions: Gallium, Germanium, Antimony to the United States.
5. ▸CIRS Group / FastMarkets. (2025, November). China Suspends US-Specific Mineral Export Prohibitions Until November 2026.
6. ▸FTI Consulting. (2023). Gallium and Germanium Controls: Implementation Dates and Impact.
7. ▸USGS National Minerals Information Center. (2025). Critical Minerals Production Concentration Data.
8. ▸Department of Energy. (2025). Mineral Security Partnership: 14-Nation Framework Update.
9. ▸Tresslers Group Intelligence. (2026). Supply Chain Sovereignty. [tresslersgroup.com/insights/supply-chain-sovereignty-2026]
10. ▸Tresslers Group Intelligence. (2026). The Post-AGI Investment Thesis. [tresslersgroup.com/insights/post-agi-investment-thesis-2026]

Tresslers Group Intelligence — Tressler's Trading Division Driven by Innovation. Defined by Impact. Resource Intelligence at Geopolitical Precision. © 2026 Tresslers Group. Transmission Complete.