Rare Earths 101

A close-up, detailed image of a raw, unprocessed piece of Cerium in its natural, metallic state. The Cerium appears as a malleable, soft, ductile iron

Cerium

A close-up, detailed image of a raw, unprocessed piece of Dysprosium in its natural metallic state. Dysprosium appears as a relatively hard, silvery-white metal

Dysprosium

A close-up, detailed image, of a raw, unprocessed, Erbium

Erbium

a piece of tin foil sitting on top of a table

Europium

a piece of metal sitting on top of a table

Gadolinium

A close-up, detailed image of a raw piece of Holmium in its natural metallic form.

Holmium

A close-up, detailed image of a raw, unprocessed piece of Lanthanum in its natural, metallic state. The Lanthanum displays a soft, silvery-white color

Lanthanum

a piece of tin foil sitting on top of a table, Lutetium

Lutetium

a piece of Neodymium rock sitting on top of a table

Neodymium

The Promethium appears as a silvery-gray, slightly rugged, and dense metal, with hints of its radioactive nature through a subtle, faint glow emanating from its surface.

Promethium

A close-up, detailed image of a piece of raw, unprocessed Praseodymium in its natural, metallic state. Praseodymium is a soft, malleable, silvery-yellow

Praseodymium

The Samarium appears as a hard, silvery-white metal with a smooth yet slightly rugged surface, showcasing its stability in air.

Samarium

The Scandium has a soft, silvery-white appearance with hints of a yellowish or pinkish cast from oxidation.

Scandium

Terbium appears as a soft, silvery-gray metal with a smooth and slightly reflective surface, showcasing its malleability and ductility.

Terbium

a rock sitting on top of a black surface

Thulium

a piece of metal that is sitting on a table

Thorium

a piece of tin foil sitting on top of a table

Ytterbium

Terbium appears as a soft, silvery-gray metal with a smooth and slightly reflective surface, showcasing its malleability and ductility.

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a rock sitting on top of a black surface

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a piece of metal that is sitting on a table

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REEs might not be household names, but they lurk inside many devices and technologies we use daily and in strategic industries. Their unique magnetic, phosphorescent, and chemical properties make them indispensable in a broad range of applications.

The following tables show the different rare earth elements used in each application, their approximate global volumes, and prices.

Table 1 – REE Applications and their usage by volume

wdt_ID wdt_created_by wdt_created_at wdt_last_edited_by wdt_last_edited_at REE Application Amount (t/yr) La Ce Pr Nd Pm Sm Eu Gd Tb Dy Ho Er Tm Yb Lu Y Sc
1 Magnets 500 200 9,000 50,000 300 100 300 1,500 50 50
2 Batteries 5,000 8,000 1,500 500
3 Catalysts 8,000 20,000
4 Electronics 200 200 100 500 100 50 50 10 5 500
5 Medical 800 5
6 Defense 300 100 100 1,000 50 10 50 100 300 20 10 1 1 1 100 2
7 Optical 50 50 500 30 100 5 20 5 50
8 Ceramics 500 100 3,000 3
9 Glass 1,500 18,000 100 100 20 2 500
10 Sensors 50 100 5 100
11 Total Estimated (t/yr) 16,050 46,600 10,850 52,600 0 350 110 950 500 1,950 105 180 6 31 18 4,250 5

Table 2 – Approx. values of each element

wdt_ID wdt_created_by wdt_created_at wdt_last_edited_by wdt_last_edited_at REE Values La Ce Pr Nd Pm Sm Eu Gd Tb Dy Ho Er Tm Yb Lu Y Sc
1 Approx Value US $/t $1,750 $1,500 $47,000 $60,000 N/A $4,000 $21,500 $40,000 $275,000 $260,000 $57,500 $45,000 $90,000 $35,000 $575,000 $6,000 $4,000,000

So given the above the REEs to focus on for investment are: Table 3 – Key REE to Focus on for investment

wdt_ID wdt_created_by wdt_created_at wdt_last_edited_by wdt_last_edited_at Element Main Scale Use Importance
1 Nd Magnets Core to EVs/wind; high demand
2 Pr Magnets Blended with Nd in NdPr oxide
3 Dy Magnets High-temp stability; critical, rare
4 Tb Magnets Expensive, very limited supply


“Everyone would love a super-cheap magnet that outperforms neodymium but these “god-like” materials don’t currently exist – in fact, some say they never will. Still, every time the price of neodymium spikes, there’s a resurgence of interest in new magnets. In fact, I was shocked to learn at the Birmingham meeting just how many potential magnet materials are in the running. To me at least, it seems that the challenge isn’t in making new materials per se. What’s difficult is optimizing the material and the production process, which can literally take decades. As the Japanese scientist Masato Sagawa (opens in a new tab) – the inventor of neodymium magnets – pointed out in the opening plenary at REPM (opens in a new tab), it has taken 40 years of heroic effort for these materials to reach their current BHmax, which is about 90% of its theoretical maximum value, and to achieve high coercivity and high performance.”

China controls the global rare earth market:

  • 70% of mining, 85% of refining, 90% of magnet production
  • Key historical event: 2010 export halt to Japan → global panic and massive price increases
  • Most HREEs sourced from China/Myanmar
  • Strategic material: used as a geopolitical tool by China

Western response to China’s domination:

  • Ex-China market starting to form, but it is early days
  • Global investing in non-China supply chains
  • Examples: Lynas & Arafura (Australia/Malaysia), MP Materials (U.S.)
  • U.S. DoD funding REE projects (e.g., Texas separation plant)
  • Critical Minerals Acts, trade alliances forming

China’s dominance in the rare earth market is the result of decades of strategic investment, low-cost production, and a willingness to absorb environmental damage. Since the 1980s, China has captured the majority of global rare earth mining, processing, and magnet manufacturing—accounting today for around 70% of mining and over 85% of refining. Even ore mined in the U.S. or Australia is often shipped to China for processing. This centralization creates serious supply chain vulnerabilities. In 2010, China halted rare earth exports to Japan during a maritime dispute, triggering global panic and price spikes. More recently, China introduced export controls on heavy rare earths (HREEs) like dysprosium and terbium, further underscoring its grip on high-tech supply chains and willingness to use REEs as a geopolitical tool. For many nations, especially in the West, this dependence has become a strategic liability.

In response, the U.S., EU, Japan, and others are racing to diversify supply and build refining capabilities. Projects like MP Materials’ Mountain Pass mine and Lynas Rare Earths’ Malaysian separation plant are key milestones. New processing plants are underway in the U.S. and Europe, with government funding accelerating progress. However, breaking China’s near-monopoly won’t happen overnight—especially in refining and magnet production, where China maintains an overwhelming lead. Meanwhile, demand is booming, particularly for NdFeB magnets used in electric vehicles, wind turbines, and military tech. Light REEs like cerium are abundant and often oversupplied, but key magnet metals face tight supply and pricing volatility. For investors and policymakers alike, the rare earth sector presents both strategic opportunity and risk—where understanding geopolitical currents is just as important as tracking new mining ventures.

  • Recycling: wind turbines, EVs, e-waste (early stage)
  • Innovation: membranes, bio-separation, ionic liquids
  • Trade policies: U.S. IRA, EU CRMA, China export controls
  • New sources: coal ash, red mud, deep sea (experimental)
  • Substitution R&D: ongoing, but no viable large-scale replacement yet and could take decades.

The rare earth sector is evolving, with innovations and policy shifts reshaping its landscape. Recycling is gaining traction as a way to reduce reliance on mining, particularly as large-scale products like EV motors and wind turbines reach end of life. Startups and major players (like Solvay and Japanese firms) are investing in extracting rare earths from used magnets and industrial waste. Meanwhile, global regulations are tightening: the U.S. and EU are offering incentives for non-Chinese supply, while China is imposing stricter environmental rules and export controls, affecting global supply. New refining methods like membrane separation and green chemistry are in development, aiming to reduce costs and environmental impact. Projects are also exploring unconventional sources such as coal ash and red mud. While substitutes for rare earth magnets are being researched, widespread use is still years away—meaning demand for key elements like Nd, Pr, Dy, and Tb is expected to remain strong in the near term.

The rare earth industry is set to grow significantly, fueled by the electrification of transport, renewable energy expansion, and geopolitical urgency to diversify supply chains. By 2030, the market may see more regional players, but China will remain dominant due to its head start. Investors should monitor not just company performance, but also technological innovation, regulatory trends, and global trade policies—all of which impact pricing and project viability. Strategic partnerships, vertical integration (from mine to magnet), and ESG-friendly approaches could differentiate winners from overhyped prospects. Ultimately, rare earths are more than obscure metals—they are foundational to modern life and defense, making this a sector where understanding the science and politics is as critical as the balance sheet.

  • Rare earths (especially Nd, Pr, Dy, Tb) are vital to future tech
  • China remains dominant, but diversification is happening
  • High growth potential but high risk: due diligence essential
  • Look for credible projects, government support, tech advantage