Demand share by mineral
How much of each mineral’s demand comes from robotics.
| Name | Type | Supply | 1M change | 1Y change | Top origin |
|---|---|---|---|---|---|
| Industrial robots | Component | Stable | −3.8% | +595.4% | China |
| Small DC motors and servo motors | Component | Stable | −9.1% | +3.0% | Mexico |
| Ball bearings | Component | Easing | −12.2% | +0.6% | China |
| Gears, gearboxes and precision reducers | Component | Stable | −24.4% | −45.1% | Germany |
| Mineral | Role in Robotics | Price per kg | 1M change | Stocks |
|---|---|---|---|---|
| Aluminum | Lightweight frames and housings | $3.63 | −7.7% | Aluminum stocks |
| Beryllium | Copper-beryllium springs and connectors | $1,600 | - | - |
| Boron | Neodymium-iron-boron magnets | $5.27 | −6.5% | - |
| Cerium | $2.10 | - | - | |
| Cesium | $104,000 | - | - | |
| Chromium | Bearing and gear steels | $1.86 | - | - |
| Cobalt | Battery cathodes and samarium-cobalt magnets | $56.81 | −3.9% | Cobalt stocks |
| Copper | Motor windings and wiring | $13.92 | +2.2% | Copper stocks |
| Dysprosium | Keeping motor magnets strong when they run hot | $274.30 | - | - |
| Erbium | $52.60 | - | - | |
| Europium | $31.26 | - | - | |
| Gadolinium | $34.58 | - | - | |
| Gallium | Gallium nitride motor drives and lidar | $1,530 | −11.0% | - |
| Germanium | Infrared and thermal sensors | $4,861 | −14.2% | - |
| Graphite | Battery anodes | $1.17 | −40.4% | - |
| Hafnium | $5,039 | +55.3% | - | |
| Holmium | $80.18 | - | - | |
| Indium | Sensors and displays | $732.37 | +5.7% | - |
| Iridium | $158,394 | +2.7% | - | |
| Lanthanum | $1.17 | - | - | |
| Lithium | Batteries in mobile and humanoid robots | $89.62 | +24.4% | Lithium stocks |
| Lutetium | $1,010 | - | - | |
| Magnesium | Lightweight structural parts | $3.99 | −2.0% | - |
| Manganese | Battery cathodes and alloy steels | $0.58 | - | Manganese stocks |
| Metallurgical coal | $0.15 | +1.2% | Metallurgical coal stocks | |
| Neodymium | Permanent magnets in the motors that move every joint | $85.14 | - | - |
| Nickel | Battery cathodes | $17.24 | −5.8% | Nickel stocks |
| Niobium | $42.82 | −0.6% | - | |
| Palladium | $41,504 | −5.2% | - | |
| Platinum | $53,892 | −1.6% | - | |
| Praseodymium | Permanent magnets, alongside neodymium | $89.40 | - | - |
| Rubidium | $24,530 | - | - | |
| Ruthenium | $44,386 | −5.4% | - | |
| Samarium | Samarium-cobalt magnets for demanding environments | $3.27 | - | - |
| Scandium | $5,200 | - | - | |
| Silicon | Chips and sensors | $2.85 | −5.5% | - |
| Silver | Electrical contacts | $2,040 | +5.7% | Silver stocks |
| Tantalum | Capacitors in control electronics | $628.07 | −6.4% | - |
| Terbium | Keeping motor magnets strong when they run hot | $1,188 | - | - |
| Thulium | $1,840 | - | - | |
| Tin | Solder in electronics | $52.30 | −0.2% | - |
| Titanium | High-strength lightweight parts | $0.83 | - | Titanium stocks |
| Tungsten | Cemented carbide tools and heavy components | $127.28 | −7.9% | - |
| Vanadium | Gear and tool steels | $23.90 | −9.7% | - |
| Ytterbium | $17.08 | - | - | |
| Yttrium | $11.43 | - | - | |
| Zinc | $3.79 | −0.2% | Zinc stocks | |
| Zirconium | $2.39 | −53.3% | - |
Robotics turns electricity into precise movement, and precise movement is built from critical minerals. Every joint of an industrial arm, a warehouse robot, a drone or a humanoid robot is driven by an electric motor, most of them using neodymium-iron-boron magnets, often with dysprosium or terbium to cope with heat. Copper windings, gearboxes of hardened steel and the electronics that control each motor add a long list of other minerals.
The newest generation raises the stakes. Humanoid and mobile robots carry their own batteries, sensors and computers, combining the mineral needs of an electric vehicle, a smartphone and an AI server in one machine. As carmakers and technology companies race to build them at scale, robotics is becoming a meaningful new source of demand for rare earths in particular.
Stockatomics maps 48 critical minerals to robotics, from the magnets in its motors to the chips that make it think.
A robot is a collection of motors, sensors, batteries and computers, and each of those draws on critical minerals.
Most robot joints are driven by permanent-magnet motors using neodymium and praseodymium with boron, with dysprosium or terbium where they run hot. Samarium-cobalt magnets serve the most demanding environments, and copper windings carry the current.
Lightweight frames use aluminum, magnesium and, in high-end designs, titanium, while gears, bearings and harmonic drives rely on steels alloyed with chromium, vanadium and manganese, cut with tungsten carbide tools.
Cameras, lidar and touch sensors use silicon, gallium, germanium and indium, and the motor drives that control each joint increasingly use gallium nitride chips. Tantalum capacitors, tin solder and beryllium-copper connectors keep it all wired together.
Mobile and humanoid robots carry lithium-ion batteries, drawing on lithium, nickel, cobalt, manganese and graphite.
Robotics depends above all on rare earth magnets, and China makes most of them. When China placed several heavy rare earths and magnet materials under export control in 2025, robot and drone makers outside China faced the same shortages as carmakers.
China is also the world's largest market for industrial robots and a leading manufacturer of humanoid and service robots, giving it advantages in components as well as materials. Batteries and chips add the supply chain risks of the electric vehicle and semiconductor industries.
As of October 2026, robotics is entering a new phase. Industrial robots continue to spread through factories, while humanoid and general-purpose robots, powered by advances in artificial intelligence, are moving from prototypes towards production.
How much of each mineral’s demand comes from robotics.
What robotics’ demand for each mineral is worth at its benchmark price.
How robotics’ demand for each mineral grows under each scenario.
The listed companies ranked by how much of their value depends on robotics.
Robots move using electric motors, most of which use rare earth permanent magnets, and they combine those motors with batteries, sensors and computers, each built from critical minerals.
Dozens, one or more for each joint, which is why humanoid robots could become a significant source of demand for rare earth magnets if they are produced at scale.
Most high-performance robot motors use neodymium-iron-boron magnets, often with dysprosium or terbium. Some designs use other motor types, usually with trade-offs in size or efficiency.
Copper for motor windings, aluminum and magnesium for lightweight frames, alloy steels for gears and bearings, lithium-ion battery minerals, and silicon, gallium and germanium in their electronics and sensors.
Robotics depends on 48 critical minerals: aluminum, beryllium, boron, cerium, cesium, chromium, cobalt, copper, dysprosium, erbium, europium, gadolinium, gallium, germanium, graphite, hafnium, holmium, indium, iridium, lanthanum, lithium, lutetium, magnesium, manganese, metallurgical coal, neodymium, nickel, niobium, palladium, platinum, praseodymium, rubidium, ruthenium, samarium, scandium, silicon, silver, tantalum, terbium, thulium, tin, titanium, tungsten, vanadium, ytterbium, yttrium, zinc and zirconium. Each mineral's role and price per kg is on this page.
Stockatomics links 76 listed companies to robotics through the critical minerals they produce, process or recover and the components they make or buy, among them ABB (SWX: ABBN), Albemarle (NYSE: ALB), Alcoa (NYSE: AA), Alpha Metallurgical Resources (NYSE: AMR), Americas Gold and Silver (NYSE American: USAS) and Andrada Mining (AIM: ATM). See all 76.