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The New Geopolitics of Artificial Intelligence: Why Control Over Chips, Energy and Data Is Becoming a Question of National Power

For much of modern history, geopolitical influence has been measured through territory, military strength, industrial production, energy reserves and access to international trade routes. These factors remain essential, but another dimension of power is emerging: the ability to develop, operate and control advanced artificial intelligence.

The global competition over AI is often presented as a contest between American and Chinese technology companies. That interpretation captures only part of the story. Beneath the competition between algorithms and software platforms lies a more consequential struggle over semiconductors, manufacturing equipment, electricity, computing infrastructure, skilled workers and access to data.

A country may possess the expertise to develop sophisticated AI systems but lack the computing capacity required to train them. Another may have abundant electricity and investment capital but depend on foreign suppliers for advanced processors. A third may manufacture critical components without controlling the companies that design the finished systems.

This interdependence makes artificial intelligence a geopolitical issue rather than simply a technological one.

The central question is no longer which country will develop the most impressive AI model. It is which countries will control the infrastructure that makes advanced AI possible, and how that control will influence everyone else.

The United States and China: A Competition Over Technological Dependence

The rivalry between the United States and China has increasingly extended into the technologies required to develop advanced artificial intelligence.

Washington's concerns include the potential military applications of AI, the use of advanced computing for intelligence analysis and the possibility that access to sophisticated semiconductors could accelerate Chinese military capabilities.

These concerns have informed restrictions on the export of certain advanced chips, semiconductor manufacturing equipment and related technologies.

In December 2024 and January 2025, the US Department of Commerce announced additional restrictions targeting advanced computing and semiconductor supply chains. The measures were presented as efforts to protect national security and limit access to technologies with potential military applications.

China has its own strategic calculations. Dependence on foreign semiconductor suppliers creates vulnerabilities, particularly when access to critical components can be affected by another country's export policies.

Developing domestic semiconductor manufacturing capabilities therefore serves both economic and national security objectives.

But technological independence is difficult to achieve.

Modern semiconductors depend on complex supply chains involving specialized materials, manufacturing equipment, intellectual property, engineering expertise and precision production processes distributed across several countries.

The United States has strengths in chip design and advanced computing technologies. Taiwan plays a critical role in semiconductor manufacturing. The Netherlands is central to advanced lithography equipment, while Japan and South Korea contribute important manufacturing technologies, materials and memory products.

No single country controls every essential component of the most advanced semiconductor supply chain.

This creates a geopolitical paradox: governments want greater technological independence, but achieving it requires participation in an industry built on international specialization.

Taiwan: Why a Small Island Matters to the Global AI Economy

Taiwan's importance to the global technology industry is closely associated with Taiwan Semiconductor Manufacturing Company, or TSMC, one of the world's leading contract chip manufacturers.

Advanced semiconductor production requires extraordinary precision and substantial investment. Manufacturing facilities can cost billions of dollars and depend on highly specialized equipment and experienced engineers.

TSMC's 2025 annual report states that advanced technologies, defined in its reporting as 7-nanometer processes and beyond, accounted for 74% of the company's wafer revenue. The company also reported expanding manufacturing investments in Taiwan, the United States, Japan and Europe.

74%TSMC wafer revenue from advanced technologies in 2025
415 TWhEstimated global data center electricity use in 2024
945 TWhIEA projected data center electricity use in 2030

Sources: TSMC 2025 Annual Report and International Energy Agency, Energy and AI (2025). The 2030 electricity figure is a forecast, not an observed result.

These figures demonstrate why semiconductor manufacturing has become an important consideration in international security discussions.

Taiwan occupies a strategically sensitive position because Beijing claims the island as part of China, while Taiwan maintains its own democratically elected government and military.

A major military confrontation or prolonged disruption around Taiwan could have consequences far beyond East Asia.

The semiconductor industry depends on uninterrupted electricity, water, specialized chemicals, international transportation and reliable supply chains.

Even without physical damage to manufacturing facilities, a serious disruption to shipping, logistics or essential infrastructure could affect production and delivery.

This does not mean that semiconductor dependence makes a conflict inevitable or that any particular outcome can be predicted with certainty.

It means that the consequences of instability around Taiwan could extend into industries ranging from smartphones and automobiles to cloud computing and artificial intelligence.

The Energy Problem: AI Cannot Function Without Electricity

The geopolitical competition over artificial intelligence is also becoming a competition over energy infrastructure.

Advanced AI systems require enormous computing resources. Training and operating large models depends on specialized processors housed in data centers, supported by cooling equipment, network connections and reliable electricity supplies.

According to the International Energy Agency's 2025 Energy and AI report, global data center electricity consumption was approximately 415 terawatt-hours in 2024. Its base-case projection reaches around 945 terawatt-hours by 2030.

These are forecasts rather than guaranteed outcomes, and they cover all data center activity, not AI alone. Nevertheless, AI is identified as an important driver of expected growth.

Global Data Center Electricity Demand

Historical estimate and 2030 base-case projection, in terawatt-hours.

2024 estimated consumption415 TWh
2030 projected consumption945 TWh

Source: International Energy Agency, Energy and AI, 2025. Includes AI and non-AI workloads. The 2030 value is a base-case projection.

This creates opportunities for countries with reliable electricity supplies, strong transmission infrastructure and sufficient investment capital.

But it also creates new pressures.

A country may have access to advanced chips yet struggle to provide electricity for additional data centers. Another may have abundant energy but lack reliable internet connectivity or the skilled workforce required to operate advanced facilities.

The location of AI infrastructure will therefore be influenced by more than tax incentives and construction costs.

Electricity prices, grid reliability, water availability, security, regulatory stability and access to computing equipment could become increasingly important factors in national competitiveness.

For governments, AI policy is becoming inseparable from energy policy.

Data Sovereignty: Who Controls the Information?

Semiconductors and electricity are only part of the equation.

Artificial intelligence also depends on data, and the collection, storage and processing of information have become major regulatory and geopolitical concerns.

Governments increasingly face questions about where sensitive information should be stored, which companies should be allowed to process it and what safeguards are necessary when data crosses national borders.

These concerns are especially significant in sectors involving national security, healthcare, financial services and public administration.

Some governments may prefer domestic or regionally controlled computing infrastructure for sensitive applications.

This approach is often discussed under the concept of AI sovereignty: the ability of a country or institution to exercise meaningful control over its AI capabilities, infrastructure and data.

But sovereignty does not necessarily require producing every semiconductor domestically or building every AI model from the beginning.

For many countries, a more realistic strategy may involve diversified suppliers, secure cloud infrastructure, strong privacy protections, domestic technical expertise and the ability to change providers without excessive disruption.

The challenge is to reduce strategic vulnerability without sacrificing the benefits of international technological cooperation.

The New Divide Between AI Producers and AI Consumers

The international distribution of advanced AI capabilities raises another question: will artificial intelligence narrow economic inequalities or deepen them?

Countries with access to advanced computing infrastructure, research institutions, investment capital and skilled workers may be better positioned to develop and commercialize AI technologies.

Countries without those resources could become increasingly dependent on systems developed elsewhere.

This dependence could influence the price of digital services, access to advanced tools and the ability to develop domestic technology industries.

However, the outcome is not predetermined.

AI can also lower barriers to certain forms of software development, research assistance, translation, education and business operations.

A country does not necessarily need to manufacture the world's most advanced processors to benefit economically from artificial intelligence.

The distinction lies between participating in the AI economy and controlling its most critical infrastructure.

Governments seeking greater influence may therefore need to balance investment in domestic capabilities with access to international technology markets.

Why the AI Race Is Not Simply Another Cold War

Comparisons between the US-China technology rivalry and the Cold War are understandable, but they can also be misleading.

The Cold War involved competing political and economic blocs with relatively distinct strategic structures.

Today's technology economy is deeply interconnected.

American technology companies depend on international manufacturing. Asian semiconductor producers rely on equipment, software and customers across multiple regions. European companies contribute essential technologies to global supply chains.

Even countries with significant political disagreements remain economically connected.

A complete separation of these supply chains would be extraordinarily expensive and technically difficult.

The more plausible concern is selective fragmentation.

Governments may restrict access to certain high-performance technologies while maintaining trade in less sensitive products.

Companies may diversify manufacturing locations, and countries may invest in domestic alternatives to reduce exposure to external restrictions.

The result could be a global technology system that remains interconnected but becomes more politically complicated.

Global AI Competition: The Strategic Roles of Major Economies

Country or Region Major Strength Strategic Challenge Geopolitical Importance
United States AI research, chip design, cloud platforms Dependence on international manufacturing and infrastructure constraints Major influence over advanced computing technologies
China Industrial scale, technology investment, large domestic market Restrictions on certain advanced technologies Major competitor seeking greater technological independence
Taiwan Advanced semiconductor fabrication Geopolitical and supply-chain risks Critical manufacturing center
European Union Industrial equipment, research, regulation Scaling computing and semiconductor capabilities Important technology supplier and regulatory actor
India Software talent, digital services, growing technology ecosystem Advanced computing access, energy and manufacturing scale Potential growth center for AI applications and services

This table is a qualitative editorial comparison, not a numerical ranking of national AI capabilities.

What This Means for India and Other Emerging Economies

For India and other emerging economies, the AI competition presents both opportunities and challenges.

India possesses a large technology workforce, a substantial digital services industry and growing interest in domestic semiconductor and AI capabilities.

Its strategic opportunity may lie in combining software expertise, digital infrastructure, research capacity and international partnerships.

However, expanding advanced AI infrastructure also requires reliable electricity, computing resources, technical training and long-term investment.

The same considerations apply across Southeast Asia, the Middle East, Africa and Latin America.

Some countries may become attractive locations for data centers because of energy availability and investment conditions. Others may specialize in AI applications, technical services or semiconductor-related manufacturing.

There is no single development model that every country can follow.

The important question is whether national strategies address actual economic strengths and infrastructure limitations rather than treating AI investment as a competition for prestige.

The National Security Dilemma

Artificial intelligence has potential applications in intelligence analysis, cyber defense, logistics, surveillance and military planning.

These possibilities explain why governments increasingly treat advanced computing as a strategic resource.

Yet many AI technologies are dual-use, meaning they can serve civilian and military purposes.

A powerful computing system might support scientific research, medical innovation or commercial services while also possessing capabilities relevant to military applications.

This makes export controls difficult to design.

Restrictions that are too narrow may fail to address genuine security concerns. Restrictions that are too broad may damage legitimate commerce, scientific collaboration and international trust.

There is also a risk that aggressive restrictions encourage countries to develop competing technological systems, potentially reducing opportunities for cooperation.

The challenge for policymakers is to protect national security without unnecessarily undermining the economic and scientific benefits of technological development.

The central geopolitical dilemma: Countries want to protect advanced technologies from potential security threats while continuing to benefit from the international supply chains and scientific collaboration that make those technologies possible.

Who Will Control the Next Era of Global Power?

The future of AI geopolitics will not be decided by a single company, country or technological breakthrough.

It will depend on how governments and businesses manage a complicated combination of semiconductor production, computing capacity, energy infrastructure, technical expertise, regulation and international relationships.

The United States has significant advantages in advanced computing and technology development. China possesses substantial industrial capabilities and strong incentives to reduce technological dependence. Taiwan remains critical to advanced semiconductor manufacturing, while other economies contribute essential technologies and infrastructure.

Emerging economies may find opportunities in AI services, digital infrastructure and specialized applications, even if they cannot independently produce the most advanced chips.

But technological power will also depend on institutional choices.

Countries that invest in research while neglecting electricity infrastructure may encounter practical limitations. Those that emphasize domestic control without sufficient international cooperation may face higher costs. Governments that encourage innovation without protecting rights and security may create new vulnerabilities.

The countries best positioned for the next phase of AI development may not be those that pursue complete independence, but those that combine strategic resilience with productive international partnerships.

Artificial intelligence is changing how power is created, distributed and exercised.

The competition is no longer only about who can build the smartest machine. It is increasingly about who controls the physical and institutional systems that allow those machines to exist.

And in that competition, semiconductors, electricity and data may become as strategically important as many of the resources that shaped earlier eras of global politics.

Frequently Asked Questions

How is artificial intelligence changing global geopolitics?

Artificial intelligence is increasing the strategic importance of semiconductors, data centers, electricity infrastructure and advanced computing expertise. Countries are competing to secure access to these resources because they influence economic competitiveness, national security and technological independence.

Why are the United States and China competing over AI chips?

Advanced semiconductors are essential for many sophisticated AI systems and have potential military applications. The United States has introduced export restrictions on certain technologies, while China has incentives to strengthen domestic semiconductor capabilities and reduce dependence on foreign suppliers.

Why is Taiwan important to artificial intelligence development?

Taiwan is a major center of advanced semiconductor manufacturing, particularly through TSMC. Disruptions to Taiwanese manufacturing or international supply chains could affect the availability of chips used in AI systems and numerous other technologies.


Sources and Editorial Notes

This article is a geopolitical analysis based on publicly available institutional reports and policy documentation. It distinguishes verified historical developments from forecasts and analytical interpretations.

Sources:

US Bureau of Industry and Security | International Energy Agency: Energy and AI | TSMC Annual Reports

Publication date: October 12, 2026. This is an analytical feature, not a breaking-news report. Projections and geopolitical scenarios should not be interpreted as certain future events.

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