The Rare Earths

When Industrial Strategy Becomes Geopolitical Dharma

Author: Shashank Heda, MD

Location: Dallas, Texas

Who Should Read This

• Anyone who believes technology strategy and national sovereignty are inseparable
• Policy architects navigating the tension between resource dependence and industrial autonomy
• Business leaders whose supply chains carry geopolitical risk they haven’t yet diagnosed
• Those who sense the next decade will be shaped not by who controls algorithms, but by who controls the periodic table

Why It Matters

• The energy transition, defense modernization, and quantum computing all depend on 17 elements most people have never heard of
• One nation controls 70% of global processing capacity—not through conquest, but through decades of systematic vertical integration
• Having reserves in the ground means nothing without the refining architecture to convert ore into strategic leverage
• What looks like a technical supply chain problem is actually a civilizational question: can democracies build long-term industrial governance, or will they always cede control to systems that think in generations?

The holmium laser sits in the urologist’s operating room. Compact. Precise. Unremarkable to anyone who hasn’t considered where holmium comes from or what it takes to concentrate a trace element scattered across the earth’s crust into a medical device that vaporizes kidney stones with 2100-nanometer infrared pulses.

Holmium is a lanthanide. One of the 17 rare earth elements that define the material substrate of every high-performance technology we’ve built since the 1980s. Electric motors in Teslas and F-35 actuators, wind turbines and MRI contrast agents, fiber-optic amplifiers and the phosphors in every LED screen you’ve stared at today.

The rare earths are not actually rare in crustal abundance—cerium is more common than copper—but they are rarely concentrated into economic deposits, and when they are, extracting and separating them requires chemical processing so complex and waste-intensive that only a handful of nations have the capacity at scale.

One of those nations now controls approximately 70% of global rare earth processing. This wasn’t an accident. It was strategy executed across three decades with the kind of patient institutional discipline that treats industrial policy as kartavya—duty, not opportunism.

The West is now attempting to rebuild what it dismantled: the midstream refining capacity that turns ore into usable oxides, the metallurgical expertise to produce neodymium-iron-boron magnets, the supply chain sovereignty that prevents a single chokepoint from determining whether your EV motors ship or your defense contractors can build guidance systems.

Capability Without Governance

I’ve watched similar dynamics in oncology. You can sequence a tumor’s genome in hours—remarkable technical capability—but if you lack the clinical architecture to interpret what those mutations mean for treatment selection, the data sits inert. Capability without governance produces information, not power.

The rare earths present the same structural problem at national scale. Having geological reserves—India has substantial monazite deposits along Kerala’s coastlines, Australia holds massive bastnäsite and xenotime formations—means almost nothing if you can’t chemically separate mixed lanthanide concentrates into individual oxides and then metallurgically process those oxides into functional alloys.

That separation is where leverage lives. Mining is geographically distributed. Fourteen countries mine rare earths commercially. But solvent extraction—the hydrometallurgical process that isolates neodymium from praseodymium, dysprosium from terbium, europium from gadolinium—remains concentrated in facilities that took decades to build and optimize, with waste streams so challenging that environmental regulation alone can determine whether processing occurs domestically or offshore.

The Vertical Integration That Changed Everything

China didn’t just dominate rare earth production. It verticalized it—integrating mine to magnet to motor under coherent governance architecture. The West offshored processing, dismantled domestic capacity, and convinced themselves that market efficiency would preserve access when needed. The 2010 export restrictions demonstrated otherwise. Japan’s automotive and electronics sectors suddenly faced supply disruption for materials with no ready substitute and months-long procurement cycles.

That was the diagnostic moment—when the structural absence became visible. Not a materials shortage. A governance deficit.

The U.S. response: the 2022 CHIPS and Science Act provisions for critical minerals, Department of Defense investments in domestic separation capacity, partnerships with Australia’s Lynas Rare Earths to build processing facilities in Texas. The EU: the Critical Raw Materials Act, strategic partnerships with Canada and Greenland, €1.7 billion in funding for extraction and refining projects. Both are racing to rebuild what took thirty years to lose.

India’s Unusual Position

India sits in an unusual position. Substantial geological endowment—monazite sands carry thorium alongside rare earths, which creates radiological handling challenges but also positions India as one of the few nations with both resources and established nuclear materials governance. The policy intent exists: exploration acceleration, domestic processing mandates, value-chain development programs through the Department of Atomic Energy and the Ministry of Mines.

What’s missing? The same layer every nation without processing sovereignty lacks: operational rare earth separation facilities at commercial scale, metallurgical capacity for high-performance alloys, downstream integration into motors and defense systems, environmental protocols that allow processing without triggering regulatory paralysis.

Resource endowment does not equal industrial capability. Ask any pathologist: having tissue doesn’t mean you can diagnose it. You need staining protocols, microscopy infrastructure, pattern recognition training, quality control systems. The rare earths are no different. Ore in the ground is just geological potential until you build the architecture to extract strategic value.

The Institutional Barrier

The technical challenge is real but solvable. Ion-exchange chromatography, solvent extraction cascades, precipitation sequencing—these are established processes, not speculative R&D. The actual barrier is institutional: building separation facilities requires capital intensity, environmental permitting, waste management infrastructure, and decade-long commitments that extend beyond electoral cycles.

China succeeded because it treated rare earth dominance as long-term statecraft, not quarterly business strategy. Subsidized processing when it wasn’t profitable. Accepted environmental costs Western democracies exported. Verticalized supply chains before anyone else understood that controlling processing creates more leverage than controlling mines.

Can democracies build equivalent governance? That’s the open question.

The Stakes: Energy, Defense, and the Net-Zero Architecture

The energy transition depends on it. Every direct-drive wind turbine uses 600 kg of neodymium-iron-boron magnets. Every EV motor—200 kg. The International Energy Agency projects rare earth demand will grow 3–7x by 2040 depending on decarbonization scenarios. If the West can’t process those materials domestically, the entire net-zero architecture rests on supply chains vulnerable to geopolitical friction.

Defense compounds the urgency. Precision-guided munitions, radar systems, jet engines, satellite communication—all use rare earth-doped components with no substitute materials. The F-35 contains 417 kg of rare earths. A Virginia-class submarine: 4 tons. The Pentagon has designated rare earths as critical to national security. Having domestic mines means nothing if the oxides still ship to China for separation and return as finished magnets.

Recycling offers partial relief. End-of-life magnets from hard drives, speakers, motors—urban mining can recover 20–30% of demand in mature markets, but the collection infrastructure and separation economics haven’t scaled. Japan leads here, unsurprisingly, after experiencing supply disruption firsthand.

The Choice Without a Third Option

The broader lesson: critical materials require strategic governance. You cannot delegate sovereignty to market efficiency when the materials underpin every high-performance system you depend on. The market will offshore processing to wherever environmental regulation is weakest and labor costs lowest. That produces cost savings in peacetime and catastrophic vulnerability when geopolitics shifts.

India, the U.S., the EU, Australia—all face the same choice: build end-to-end rare earth value chains domestically, accept the cost, tolerate the waste streams, commit the capital, and maintain the capacity even when cheaper alternatives exist offshore. Or accept structural dependence on supply chains that cross geopolitical fault lines.

There is no third option. You either build processing sovereignty or you don’t. Reserves without refining capacity are geopolitical theater.

The holmium laser still works. But every element in that device—holmium, yttrium, erbium—passed through separation facilities that determine whether your medical technology, defense systems, energy infrastructure, and quantum computing remain accessible or become subject to someone else’s kartavya.

The question isn’t whether rare earths matter. The question is whether democracies can govern with the institutional patience required to secure them.

Author: Shashank Heda, MD

Location: Dallas, Texas