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Rare Earths are not rare- Control over the future is

  • Feb 10
  • 3 min read

Historically, power announced itself openly. Empires expanded through conquests, navies projected dominance across seas, and borders shifted through visible force. Geopolitics was something you could point to on a map.


However, today, power works differently. It hums quietly- inside motors, magnets and microchips. If geopolitics once lived on borders and battlefields, it now lives underground. That shift explains why a group of obscure metals known as rare earth elements has become one of the most quietly decisive forces shaping global politics.


Rare earth elements (one highlighted by a red box) include: Lanthanum(La), Cerium(Ce), Praseodymium(Pr), Neodymium(Nd), Promethium(Pm), Samarium(Sm), Europium(Eu), Gadolinium(Gd), Terbium(Tb), Dysprosium(Dy), Holomium(Ho), Erbium(Er), Thulium(Tm), Ytterbium(Yb), Lutetium(Lu), Scandium(Sc) and Yttrium(Y)
Rare earth elements (one highlighted by a red box) include: Lanthanum(La), Cerium(Ce), Praseodymium(Pr), Neodymium(Nd), Promethium(Pm), Samarium(Sm), Europium(Eu), Gadolinium(Gd), Terbium(Tb), Dysprosium(Dy), Holomium(Ho), Erbium(Er), Thulium(Tm), Ytterbium(Yb), Lutetium(Lu), Scandium(Sc) and Yttrium(Y)

This story does not begin in a mine. It begins, much closer to home.


The vibration in your smartphone, the smooth acceleration of an electric vehicle, the silent rotation of a wind turbine- all depend on rare earth elements. These 17 metals enable modern technologies to be smaller, lighter, faster, and more efficient. They do not power the world loudly, but they do it precisely. And precision is where modern power hides.


Uses of Rare Earth Elements (Image Credits: National Energy Technology Laboratory)
Uses of Rare Earth Elements (Image Credits: National Energy Technology Laboratory)

Despite their name, rare earths are not rare in geological terms. They are primarily used for their magnetic, catalytic and optical properties. They are found across the continent- in Asia, Africa, Australia and even in India's coastal sands. What is 'rare' is the ability to extract, process and refine them in ways that are economically viable, technologically sophisticated and politically acceptable.


Rare Earth Elements reserve (2024 estimates)
Rare Earth Elements reserve (2024 estimates)
Mining is only the first step. However, processing is the real gatekeeper.

Turning raw ore into usable material requires complex chemical separation, specialised infrastructure, and a willingness to absorb high environmental costs. Over the decades, China focused less on owning rare-earth deposits and more on mastering what happens after extraction. Through sustained state-led investment in processing infrastructure and advanced separation technologies, China came to control roughly 90% of global rare earth processing- the very chokepoint that most other countries cannot simply replicate- giving it structural leverage over global supply chains.


The result was not a monopoly by conquest, but by infrastructure. Today, very few countries can transform them into usable components without relying on an external processing network. That dependence often feels abstract- until it suddenly isn't.


Rare-earth elements do not create crises. They reveal them.

When trade tensions rise, rare earths rarely trigger conflict directly. Instead, they expose where leverage already exists. A delayed shipment may not make headlines, but a slowed factory line does. Gradually, industries are forced to confront uncomfortable realities; clean energy transitions depend on fragile supply lines; defence preparedness rests on materials sourced elsewhere; and strategic autonomy can be undermined by chemistry rather than combat.


This is not scarcisty politics. It is permission politics- the power to decide who gets to build the future and who must ask first.

This is also why rare-earth geopolitics feels fundamentally different from oil or gas. Fossil fuels shaped global power through visibility- tankers, pipelines, embargoes. Rare earths shape it through embeddedness. They are everywhere and nowhere at once. You rarely notice them until they are missing.

Because they sit at the intersection of climate ambition, technological competition, and national security, rare earths force uncomfortable trade-offs. Green transitions begin to look extractive. Strategic autonomy begins to look ecologically risky. Progress itself starts to appear morally complicated.


Beneath these debates about supply chains and industrial policy lies a quieter, more difficult question: Are we prepared to accept the cost of the futures we demand?


Those costs are environmental and social. They are often borne far from boardrooms and capital cities- by communities living near extraction sites, processing hubs, and disposal zones. Rare earths remind us that even the cleanest technologies remain rooted deeply in human trade-offs.


 Sludge pouring into a lake in an unknown part of Inner Mongolia                                   (Credit: Liam Young/Unknown Fields)
Sludge pouring into a lake in an unknown part of Inner Mongolia (Credit: Liam Young/Unknown Fields)

Ultimately, rare earths matter not because they are obscure or technical, but because they signal a shift in how power works. From visible dominance to silent dependence. From territory to technique.


Understanding rare earths is not about memorising elements on a chart. It is about recognising that the politics of the future will be decided less by who shouts the loudest, and more by who controls the systems that few people notice.


Everything is personal

Even the minerals beneath our feet.


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