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CRITICALMINERALSTRACKER
Mobility & E-Mobility

Critical Minerals in Transportation

Electric vehicle battery chemistries, automotive lightweighting alloys, and mobility infrastructure depend on minerals with concentrated supply chains and growing demand trajectories.

Battery chemistry 6 key minerals profiled Lightweighting focus
More minerals per EV
A typical electric vehicle requires roughly six times more critical minerals by mass than a conventional internal combustion vehicle.
90%+
Anode processing concentration
Over 90% of battery-grade graphite anode material processing is concentrated in one country, creating a critical bottleneck.
~40%
Weight reduction with aluminum
Replacing steel body panels with aluminum can reduce vehicle body weight by approximately 40%, directly extending EV driving range.
The EV Revolution

Electrifying transportation means transforming the mineral supply chain.

Electric vehicles require approximately six times more critical minerals by mass than conventional internal combustion vehicles. The battery pack alone contains tens of kilograms of graphite, lithium, nickel, cobalt, and manganese. The rest of the vehicle demands aluminum, copper, magnesium, and specialty steels.

Automakers are racing to secure long-term mineral supply through direct offtake agreements, joint ventures with miners, and vertical integration into cathode and anode precursor manufacturing. Battery chemistry innovation (LFP, sodium-ion, solid-state) is partly driven by supply chain diversification goals.

Vehicle Mineral Demands
1
Battery Pack
Graphite anode, lithium/nickel/cobalt/manganese cathode, copper foil current collectors, and aluminum casing structure.
2
Electric Drivetrain
Rare earth permanent magnets in traction motors, copper windings, and power electronics using silicon carbide or gallium nitride.
3
Body & Structure
Aluminum body panels, magnesium instrument panels, niobium HSLA steel crash structures, and zinc-galvanized underbody.
4
Charging Infrastructure
Copper cables, aluminum busbars, silicon power devices, and steel enclosures for DC fast-charging stations.
Key Materials

Transportation Minerals

Battery Supply Chain

The EV battery supply chain is geographically concentrated.

Over 90% of battery-grade graphite anode processing, over 70% of cobalt mining (DRC), and over 60% of lithium chemical conversion are concentrated in single countries or regions. Automakers face supply security challenges that traditional ICE manufacturing never encountered.

Localizing battery material supply chains requires building mining, refining, and precursor manufacturing capacity in new jurisdictions — a process that typically takes 5 to 10 years.

Source: IEA Global EV Outlook 2026; USGS Mineral Commodity Summaries 2025.

Common Questions

Transportation Minerals FAQ

EV batteries contain large quantities of lithium, graphite, nickel, cobalt, and manganese that have no equivalent in internal combustion vehicles. Additionally, EVs use more copper (for motors, wiring, and charging) and more aluminum (for lightweighting to extend battery range). A typical EV battery pack alone contains 50–80 kg of graphite, 8–12 kg of cobalt, and 6–10 kg of lithium.
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