The New Resource War: How Rare Earths and Critical Minerals Are Reshaping Global Power

Oil powered the twentieth century. Rare earths and critical minerals may determine who leads the twenty-first. From artificial intelligence and electric vehicles to missiles and renewable energy, the struggle for these hidden resources is quietly reshaping geopolitics, global trade and the future of technological leadership.

Introduction

For more than a century, oil has been regarded as the lifeblood of the global economy. Nations fought wars over energy reserves, shipping routes and pipelines because whoever controlled oil often enjoyed economic prosperity and geopolitical influence.

Today, however, a quieter but equally significant contest is unfolding beneath the Earth's surface. The focus is no longer solely on crude oil or natural gas. Instead, governments and multinational corporations are competing for access to rare earth elements and other critical minerals that power the technologies shaping the modern world.

Many technologies central to the modern economy—from smartphones and electric vehicles to wind turbines, advanced defence systems and AI infrastructure—depend directly or indirectly on critical minerals and specialised materials.

The International Energy Agency's Global Critical Minerals Outlook 2026 describes critical minerals as increasingly important not only to clean energy but also to high-tech manufacturing, artificial intelligence, digital systems, aerospace and defence.

Unlike oil, however, the greatest challenge is not simply finding these minerals. Rare earth elements are relatively abundant within the Earth's crust, but they are rarely found in concentrations that make mining economically viable. Even after extraction, they require highly specialised and environmentally demanding refining processes before becoming useful for industry.

This complex supply chain has enabled one country—China—to establish an extraordinary position of dominance. Over several decades, Beijing invested heavily in mining, refining technologies, industrial infrastructure and intellectual property, gradually becoming the world's principal processor of rare earth elements. Today, much of the global manufacturing sector remains dependent on Chinese processing facilities, giving Beijing considerable influence over industries ranging from electric vehicles to advanced defence systems.

Recent export restrictions, trade disputes and sanctions have demonstrated that rare earth elements are no longer merely industrial commodities. They have become strategic geopolitical assets capable of influencing diplomatic negotiations, military preparedness and global economic stability.

As artificial intelligence accelerates, clean energy expands and geopolitical competition intensifies, the race for critical minerals may prove just as consequential as the twentieth century's struggle for oil. The question confronting policymakers is no longer whether these resources matter, but whether nations can secure reliable and diversified supply chains before strategic competition escalates further.

Related Reading: From Bullets to Balance Sheets: How Economic Power Is Redefining Global Competition.

What Exactly Are Rare Earth Elements?

Despite their name, rare earth elements (REEs) are not exceptionally rare. In fact, many of them are relatively abundant within the Earth's crust. The challenge lies elsewhere: they are rarely found in sufficiently concentrated deposits to make mining economically worthwhile. Even when commercially viable deposits are discovered, extracting and refining these elements is technically complex, expensive and environmentally demanding.

According to the U.S. Geological Survey, rare earth elements comprise a group of 17 chemically similar metallic elements. Each possesses unique magnetic, electrical and chemical properties that make them exceptionally difficult—and often prohibitively expensive—to replace.

It is important to distinguish rare earth elements from the broader category of critical minerals. Critical minerals include resources such as lithium, cobalt, nickel, manganese, graphite and tungsten, all of which are considered essential for economic security and advanced manufacturing. Rare earths represent one specialised subset of these critical minerals, yet they are among the most strategically valuable because of their irreplaceable role in permanent magnets, precision electronics and defence technologies.

This distinction matters because the global race is no longer about securing a single resource. Instead, nations are competing to control entire supply chains of strategic minerals that underpin modern industrial power.

The Invisible Materials Behind Modern Civilisation

Most people interact with rare earth elements every day without realising it.

From smartphones and electric vehicles to many wind turbines, satellites and other advanced technologies, modern life increasingly relies on components made with rare earth elements or other critical minerals.

Neodymium and dysprosium help produce powerful permanent magnets found in electric motors and wind turbines. Europium enables the vivid colours displayed on television and smartphone screens. Cerium plays a vital role in glass polishing, petroleum refining and industrial catalysts. Yttrium contributes to lasers, superconductors and specialised medical equipment.

These materials are equally indispensable in defence. Modern fighter aircraft, precision-guided missiles, naval radar systems, drones, night-vision devices and electronic warfare equipment all rely upon rare earth technologies. As militaries become increasingly dependent on autonomous systems, artificial intelligence and advanced electronics, secure access to these resources is becoming a matter of national security rather than merely industrial policy.

In many ways, rare earth elements have become the invisible foundation upon which the digital age is built.

China's Quiet Rise to Dominance

China's leadership in rare earths was not achieved overnight. It was the outcome of a long-term industrial strategy pursued over several decades.

While many developed economies shifted environmentally intensive mining and processing overseas, China invested heavily in mining operations, refining facilities, technical expertise and manufacturing capacity. Rather than exporting only raw minerals, it built an integrated industrial ecosystem capable of transforming ore into the specialised materials required by manufacturers worldwide.

Today, China not only mines a substantial share of global rare earth production but, more importantly, dominates the far more sophisticated refining and processing stages of the supply chain. The International Energy Agency estimates that China accounted for about 60% of global mined production of magnet rare earths in 2024, around 91% of refined output and approximately 94% of sintered permanent-magnet production. Many countries possess mineral deposits, yet they continue sending extracted ore to Chinese facilities because few alternatives can match Beijing's processing capacity, technical expertise and economies of scale.

This has given China an influence extending well beyond mining itself. It now occupies a critical position within industries ranging from renewable energy and consumer electronics to artificial intelligence, robotics and advanced defence manufacturing.

Strategic foresight has proven just as valuable as geological abundance.

Further Reading: The New Great Game: CPEC, BRICS, Sea Power and Pakistan's Place in an Emerging Multipolar World

From Commercial Commodity to Geopolitical Weapon

History shows that resources often become instruments of political influence.

Oil shaped twentieth-century geopolitics. Pipelines, shipping lanes and energy embargoes influenced alliances, conflicts and economic development across continents.

Rare earths are increasingly assuming a similar strategic role.

As geopolitical competition between China and the United States intensifies, export controls, investment restrictions and industrial sanctions have become increasingly common. Rather than imposing comprehensive trade bans, governments are now targeting highly specialised technologies and strategic resources that are difficult to replace.

Recent Chinese restrictions affecting exports of rare earth materials and related technologies have highlighted a new reality: supply chains themselves can become geopolitical leverage.

This vulnerability became particularly visible in April 2025, when China's Ministry of Commerce and General Administration of Customs imposed export controls on several medium and heavy rare-earth-related items, including materials involving samarium, terbium and dysprosium.

For manufacturers producing electric vehicles, wind turbines, semiconductors or defence equipment, even temporary disruptions can delay production, increase costs and expose national vulnerabilities. The competition therefore extends beyond military strength or economic output. It now encompasses resilience, diversification and technological independence.

In the twenty-first century, whoever controls strategic supply chains may exercise influence comparable to those who once controlled global oil reserves.

Renewable Energy's Hidden Contradiction

The global transition towards cleaner energy is often presented as a solution to climate change.

Yet this transformation depends upon another finite natural resource.

Electric vehicles require significantly greater quantities of strategic minerals than conventional petrol-powered cars. Wind turbines depend upon high-performance permanent magnets. The International Energy Agency estimates that a typical electric car requires about six times the mineral inputs of a conventional car, while an onshore wind plant requires around nine times more mineral resources than a similarly sized gas-fired power plant. Grid-scale batteries require lithium, cobalt, nickel and manganese. Solar infrastructure also depends on specialised minerals and advanced manufacturing materials.

Ironically, the world's pursuit of environmental sustainability is increasing dependence upon industries that involve environmentally challenging mining and chemical processing.

This presents policymakers with a difficult balancing act. Nations seek to reduce carbon emissions while simultaneously expanding mining activities that may damage ecosystems if poorly regulated.

The green transition, therefore, is not only an environmental challenge—it is equally a geopolitical and resource challenge.

The AI Revolution's Hidden Dependency

Artificial intelligence is often associated with algorithms, software and vast amounts of data. However, beneath every AI model lies a physical infrastructure that depends on strategic minerals.

AI data centres require thousands of high-performance processors operating continuously. These processors generate enormous amounts of heat and consume vast quantities of electricity, requiring sophisticated cooling systems, advanced electronic components and precision manufacturing—all of which depend on critical minerals.

Robotics presents an even clearer example. The electric motors powering industrial robots and humanoid machines rely on high-strength permanent magnets produced using rare earth elements such as neodymium and dysprosium. As automation expands from factories into healthcare, logistics, defence and household applications, demand for these materials is expected to increase significantly.

The same applies to semiconductor manufacturing. Producing the world's most advanced computer chips requires highly specialised materials, precision polishing compounds and sophisticated manufacturing equipment, many of which depend directly or indirectly on rare earth elements.

Consequently, the race for artificial intelligence is not merely a contest between software companies. It is also a competition over mines, processing plants, supply chains and industrial resilience.

Future technological leadership may depend as much on secure access to strategic minerals as on breakthroughs in machine learning.

Related Reading: Could the US-Iran War Disrupt Artificial Intelligence? How Gulf Data Centres Have Become the New Digital Battlefield.

Defence and National Security: The Strategic Dimension

Rare earth elements have become indispensable to modern military capability.

Unlike previous generations of warfare, today's armed forces rely extensively on electronics, sensors, autonomous systems and precision-guided weapons. These technologies require compact yet extremely powerful magnets and specialised alloys that conventional materials cannot easily replace.

Critical minerals are embedded throughout modern defence supply chains. The U.S. Department of Defense says they are used in virtually every Defense Department system, including unmanned aircraft, fighter jets and submarines. They are also important for sensors, communications equipment, advanced electronics and other high-performance military technologies. The U.S. Geological Survey also identifies guidance systems, lasers, radar, sonar, electronic displays and other advanced defence technologies among important rare-earth applications.

This explains why governments increasingly classify critical mineral supply chains as matters of national security rather than ordinary commercial trade.

The strategic implications extend beyond wartime. A country unable to secure reliable access to rare earth materials may struggle to manufacture replacement military equipment during prolonged crises, reducing both its deterrence capability and industrial resilience.

In this context, mines and refineries have become almost as strategically significant as military bases.

Can the West Reduce Its Dependence on China?

Recognising the strategic risks of relying heavily on a single supplier, the United States, the European Union, Japan, Australia and several other countries have begun pursuing supply-chain diversification. Europe has formalised this strategy through the EU Critical Raw Materials Act. By 2030, the EU aims to meet at least 10% of its annual strategic raw-material needs through domestic extraction, 40% through EU processing and 25% through recycling, while limiting dependence on any single third country to no more than 65% at a relevant processing stage.

New mining projects are being developed in Australia, the United States, Canada and parts of Africa. Governments are investing billions in domestic refining capacity, recycling technologies and research into substitute materials. Strategic partnerships have also emerged between mineral-rich developing countries and advanced industrial economies seeking long-term supply agreements.

Related Reading: Beyond the Strait of Hormuz: Why Gulf Nations Are Quietly Redrawing the Global Energy Map.

Building a commercially viable rare earth industry involves far more than opening new mines. It requires processing facilities, skilled engineers, specialised chemical expertise, environmental safeguards, transport infrastructure and stable long-term investment. Developing this ecosystem may take years or even decades.

Meanwhile, Chinese firms continue benefiting from extensive industrial experience, integrated supply chains and economies of scale that remain difficult for competitors to replicate.

Consequently, diversification is likely to reduce dependence rather than eliminate it altogether.

The Environmental Price of Progress

While rare earth elements support clean energy and advanced technology, extracting them carries significant environmental costs.

Mining operations often involve removing enormous quantities of rock to recover relatively small amounts of usable material. Refining requires complex chemical processes that can generate toxic waste and cause serious environmental damage if not managed responsibly. The International Energy Agency notes that poorly managed rare-earth extraction and processing can produce acidic leachate, contaminated water and soils, toxic sludge and radioactive tailings, particularly where ores contain naturally occurring uranium or thorium.

Ironically, the technologies designed to reduce global carbon emissions frequently depend upon environmentally intensive extraction processes.

Related Reading: The Threat of Global Warming and the Ways to Counter It

This presents one of the defining policy dilemmas of the twenty-first century.

How can societies accelerate the transition towards renewable energy while minimising the environmental damage associated with obtaining the very minerals required to build that future?

The answer is unlikely to lie in abandoning mining altogether. Instead, it will require stricter environmental regulation, improved recycling technologies, cleaner processing methods and greater international cooperation.

Sustainability must extend beyond the products we use to the methods by which they are produced.

The Emerging Era of Resource Diplomacy

Diplomacy has entered a new phase.

For much of the twentieth century, international negotiations frequently centred on oil production, pipeline routes and maritime energy security. Today, increasing attention is directed towards critical mineral partnerships, investment agreements and technology cooperation.

Countries possessing substantial reserves of lithium, cobalt, nickel, graphite and rare earth elements are becoming increasingly important geopolitical players. Their natural resources offer not only economic opportunities but also strategic leverage in negotiations with major powers.

At the same time, industrialised nations are competing to secure long-term access through investment, development assistance, trade agreements and strategic partnerships.

This evolving landscape has given rise to what many analysts describe as resource diplomacy—a form of international engagement where access to critical minerals increasingly shapes foreign policy, economic cooperation and national security planning.

The geopolitical map of the twenty-first century may therefore be drawn not only by military alliances but also by mineral supply chains.

Related Reading: When Missiles Meet Markets: Could a Prolonged U.S.–Iran Conflict Trigger the Next Global Economic Crisis?

What Does This Mean for Developing Countries?

For developing nations, the growing demand for critical minerals presents both an extraordinary opportunity and a significant challenge.

Countries blessed with substantial mineral reserves could attract investment, create employment, strengthen industrial capacity and diversify their economies. UN Trade and Development argues that the critical-minerals boom creates an opportunity for developing countries to diversify their economies and build domestic industries, but warns that simply exporting raw commodities can deepen dependence unless countries develop processing and other value-added activities. If managed wisely, critical minerals could become catalysts for long-term economic transformation.

History, however, offers an important warning.

Many resource-rich countries have experienced what economists describe as the "resource curse," where abundant natural wealth generates corruption, weak institutions, environmental degradation and economic dependence rather than sustainable prosperity.

The future success of mineral-rich nations will therefore depend not only on what lies beneath their soil but also on the quality of governance above it.

Transparent regulation, environmental protection, value-added manufacturing, technological education and responsible resource management will determine whether these countries become industrial leaders or merely suppliers of raw materials.

The lesson is clear: natural resources alone do not create prosperity. Institutions, innovation and good governance do.

Beyond Rare Earths: The Race for Industrial Sovereignty

The competition over rare earth elements is ultimately about far more than mining.

It is about who will control the industries that define the twenty-first century.

History demonstrates that every era has been shaped by a strategic resource. Coal fuelled the Industrial Revolution. Oil transformed transportation, manufacturing and military power throughout the twentieth century. Today, as the global economy becomes increasingly digital, electrified and automated, critical minerals are assuming a similarly transformative role.

Yet the competition is no longer simply about extracting raw materials from the ground.

The real contest concerns the entire value chain—exploration, mining, refining, advanced manufacturing, research, intellectual property, recycling and technological innovation. Countries that master only one stage of this process may remain dependent on others. Those that integrate the entire ecosystem are likely to enjoy greater economic resilience and geopolitical influence.

China recognised this reality decades ago. Rather than treating rare earths as ordinary commodities, it invested in processing technologies, industrial infrastructure and manufacturing capacity. Other major economies are now attempting to replicate that model, though catching up will require sustained investment and strategic patience.

The lesson extends beyond rare earths. In an increasingly fragmented world, nations are beginning to realise that resilience may become just as important as efficiency. Globalisation delivered lower costs by concentrating production where it was cheapest. Geopolitical tensions, however, have exposed the risks of excessive dependence on single suppliers for strategically important resources.

The future global economy may therefore look fundamentally different from the one that emerged after the Cold War. Instead of pursuing the lowest possible production costs, governments are increasingly prioritising secure supply chains, trusted partnerships and domestic industrial capability.

In this environment, economic policy and national security are becoming inseparable.

Conclusion: The New Great Game Lies Beneath Our Feet

The twenty-first century is witnessing the emergence of a new form of strategic competition.

While headlines often focus on military exercises, trade disputes and diplomatic summits, a quieter struggle is unfolding beneath the Earth's surface. Mines, refineries and processing facilities are becoming increasingly important strategic assets alongside traditional sources of military and economic power.

Rare earth elements and other critical minerals have become the foundation of technologies that will shape the coming decades—artificial intelligence, electric vehicles, renewable energy, advanced robotics, aerospace, and modern defence systems.

The countries that secure reliable access to these resources, develop environmentally responsible extraction methods and build resilient industrial ecosystems are likely to enjoy significant economic and technological advantages.

At the same time, this transition raises difficult questions. Can the world diversify supply chains without triggering deeper geopolitical rivalries? Can environmental sustainability coexist with expanding mining operations? Will resource-rich developing countries use this opportunity to build advanced industries, or will they once again remain exporters of raw materials?

These questions remain unanswered, but one reality is becoming increasingly clear.

The next great contest among nations may not be fought primarily over oil fields or shipping lanes. It may be determined by who controls the minerals that power algorithms, electric motors, satellites and clean energy technologies.

The countries that dominate the twenty-first century may not necessarily be those with the largest mineral reserves, but those capable of transforming raw materials into innovation. In the coming decades, a mine will create value only when it is connected to refineries, research laboratories, semiconductor factories, AI infrastructure and advanced manufacturing. The true strategic asset is not the mineral itself—it is the ecosystem built around it.

The new resource war has already begun. Unlike previous struggles for strategic commodities, its outcome will influence not only military power but also economic growth, technological innovation and the pace of humanity's transition towards a more digital and sustainable future.

For governments, businesses and citizens alike, understanding rare earths is no longer a niche scientific interest. It has become essential to understanding where the global economy—and the balance of power—is heading.

Further Reading: Beyond Artificial Intelligence: AGI, Human–AI Integration and What Comes Next

Sources & Further Reading

1. International Energy Agency — Global Critical Minerals Outlook 2026

2. International Energy Agency — The Role of Critical Minerals in Clean Energy Transitions

3. China Ministry of Commerce — Export Controls on Medium and Heavy Rare-Earth-Related Items

4. U.S. Department of Defense — Securing Critical Minerals Vital to National Security

5. European Commission — European Critical Raw Materials Act

6. UN Trade and Development — Critical Minerals: Opportunities and Risks for Developing Countries

7. U.S. Geological Survey — Minerals and American Energy / Rare Earth Elements

8. International Energy Agency — Rare Earth Elements

About the Author

Jay Jarwar is the founder and editor of JayJarwar Insights. He writes about artificial intelligence, technology, geopolitics, economics, public policy and emerging global trends, with a focus on explaining complex issues in clear and accessible language.

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