Europe’s Digital Dependence: Can the EU Achieve Strategic Autonomy?
Digital
technologies have become increasingly central to economic competitiveness,
national security and the functioning of public institutions. As artificial
intelligence (AI), cloud computing and semiconductors become embedded in public
services, industry and critical infrastructure, access to these technologies is
no longer solely an economic concern but also a strategic one. For the European
Union, this creates a particular challenge. Europe possesses significant
technological capabilities, yet remains dependent on non-European actors for
several critical components of the digital economy.
These
dependencies are particularly visible in AI, cloud computing and
semiconductors, which are closely interconnected. The development of advanced
AI systems depends on access to powerful computing infrastructure and
specialized chips; cloud services rely on sophisticated hardware and
semiconductor technologies; and all three are increasingly essential to
Europe’s wider digital ecosystem. The concentration of critical capabilities
among a limited number of external providers can therefore expose European governments
and businesses to supply-chain disruptions, geopolitical tensions and potential
technological or commercial pressure.
This raises
an important question: to what extent can reducing the EU’s dependence on
non-European technological providers strengthen European strategic autonomy• This article argues that reducing technological dependence can significantly
strengthen the EU’s strategic autonomy by increasing resilience, improving
control over critical infrastructure and strengthening Europe’s bargaining
power. However, strategic autonomy should not be understood as technological
self-sufficiency. Given the global and highly interconnected nature of
technological supply chains, complete independence would be neither realistic
nor necessarily desirable.
Instead,
the EU’s objective should be to reduce critical vulnerabilities, diversify
external partnerships and develop sufficient domestic capabilities and credible
alternatives to prevent excessive dependence on any individual external actor.
European strategic autonomy should therefore be understood not as the
elimination of technological interdependence, but as the capacity to remain
resilient and retain meaningful choices within it.
Mapping
the EU’s Technological Dependencies
The EU’s
technological dependence is particularly visible in artificial intelligence,
cloud computing and semiconductors, although these vulnerabilities are closely
interconnected. In artificial intelligence, Europe possesses significant
research capabilities and emerging companies, yet remains behind the United
States in the development and commercialization of frontier models. In 2024,
US-based institutions produced 40 notable AI models, compared with three in
Europe[1].
This illustrates Europe’s weaker position in the development and large-scale
production of frontier AI models. This gap in frontier-model production is
compounded by dependence on the computing infrastructure required to develop
advanced AI systems. Training such systems requires specialized GPUs produced
by a small number of non-European companies; NVIDIA controlled around 95
percent of the data-center AI accelerator market in 2023[2].
AI dependence is therefore not limited to models themselves, but also extends
to the hardware and computing infrastructure on which advanced AI development
relies.
Cloud
computing represents a second, closely related vulnerability. In 2025, 52.7
percent of EU enterprises used paid cloud computing services, making cloud
infrastructure increasingly important to the European economy and to many AI
applications[3].
In 2024, Amazon Web Services, Microsoft Azure and Google Cloud together
accounted for around 70 percent of Europe’s infrastructure- and
platform-as-a-service market[4].
This concentration creates risks of infrastructural dependence, particularly
because the European Commission has identified entrenched user bases, lock-in
effects and high switching costs among leading cloud providers[5].
Dependence can therefore persist even where alternative services exist if
European organizations face significant technical, financial or contractual
barriers to switching providers. The issue is consequently not simply the
presence of foreign providers in the European market, but the extent to which
European users retain meaningful choice between them.
Semiconductors
reveal a different but complementary vulnerability. Their production is
distributed across a highly fragmented global value chain, and Europe lacks
sufficient capacity in some of its most advanced stages. According to a 2025
European Parliament analysis, Europe accounts for around 10 percent of global
semiconductor production, compared with 54 percent for Taiwan and 16 percent
for China. Europe also lacks leading-edge fabrication capacity for
semiconductors below 10 nanometers[6].
At the same time, Europe possesses strategically important capabilities within
the semiconductor value chain. Dutch company ASML is currently the world’s only
supplier of EUV lithography systems, which are used to manufacture leading-edge
chips[7].
This illustrates the specific nature of European technological dependence: the
EU is neither technologically self-sufficient nor without strategic
capabilities, but occupies critical positions within value chains that remain
heavily dependent on external actors for other essential stages.
Taken
together, these cases demonstrate that European technological dependence does
not result simply from a lack of technological capabilities. Rather, it arises
from the uneven distribution and concentration of critical technologies,
infrastructure and production capacity across global value chains. AI, cloud
computing and semiconductors form an increasingly interconnected ecosystem in
which vulnerabilities in one area can reinforce those in another: advanced AI
depends on computing infrastructure and specialized chips, while cloud services
depend on the hardware and technologies that underpin digital infrastructure.
The challenge for European strategic autonomy is therefore not to eliminate
technological interdependence, but to reduce those dependencies that could
leave European actors excessively exposed to external disruption or pressure.
The
EU Response: Building Capacity, Alternatives and Regulatory Power
The EU has
responded to these vulnerabilities through a combination of industrial policy,
infrastructure investment and regulation. Rather than seeking to eliminate
foreign technology from European markets, its approach increasingly aims to
strengthen European capabilities, reduce excessive dependencies and ensure that
European actors retain meaningful alternatives. This approach was brought
together more explicitly in the European Technological Sovereignty Package
presented by the European Commission in June 2026, which links initiatives in
semiconductors, artificial intelligence, cloud computing and open-source
technologies within a broader strategy to strengthen Europe’s digital autonomy
and resilience[8].
A.
Building European Technological Capacity
The first
response has been to strengthen Europe’s capacity to develop and produce
critical technologies. In semiconductors, the Commission’s proposed Chips Act
2.0 seeks to reinforce the European semiconductor ecosystem, expand advanced
chip production and reduce strategic dependencies and supply-chain
vulnerabilities[9].
Importantly, the proposal is not limited to increasing production within
Europe. It also seeks to reinforce existing European strengths and maintain
Europe’s position within global semiconductor value chains while improving
resilience.
A similar
approach is visible in artificial intelligence. Through the EuroHPC network and
AI Factories, the EU is expanding access to high-performance computing
infrastructure for European researchers, start-ups and industry[10].
The Commission’s InvestAI initiative, launched in February 2025, aims to mobilize
€200 billion for AI investment, including a €20 billion facility for AI
Gigafactories[11].
In July 2026, the EU subsequently expanded its plans to establish up to seven
AI Gigafactories, backed by up to €10 billion in European and national funding[12].
These facilities are designed to provide computing capacity at a scale suitable
for the development and training of advanced AI models in Europe.
Such
initiatives can reduce vulnerability by giving European companies and
researchers greater access to critical computing and production capacity.
However, investment alone does not guarantee technological autonomy. AI
Gigafactories will not by themselves eliminate Europe’s dependence on globally
sourced processors and other technologies. The effectiveness of European
capacity-building will therefore depend on whether it creates durable
capabilities and reduces critical dependencies rather than simply relocating
parts of an otherwise foreign-dependent technological ecosystem.
B.
Creating Alternatives and Reducing Dependence
The second
approach is to reduce the extent to which European organizations are locked
into individual technology providers. In cloud computing, this does not
necessarily require the EU to create a European equivalent of every US hyperscale.
Instead, European policy increasingly focuses on interoperability, portability
and the ability to switch between providers. This is important because
technological dependence can persist even when alternative services exist if
switching remains technically, financially or contractually difficult.
The
European Commission’s recent actions on cloud computing illustrate this shift.
In November 2025, the Commission launched three market investigations into
cloud computing under the Digital Markets Act, including investigations into
whether Amazon Web Services and Microsoft Azure should be designated as
gatekeepers[13].
In June 2026, the Commission announced its preliminary view that AWS and
Microsoft Azure should be designated as gatekeepers, highlighting their
entrenched user bases, lock-in effects and high switching costs[14].
The
objective is therefore not simply to replace foreign providers with European
ones. It is to create a more competitive and diversified environment in which
European organizations can change providers and avoid becoming excessively
dependent on any single company. This represents a broader conception of
strategic autonomy: maintaining meaningful technological choice can itself be a
source of autonomy, even when European actors continue to rely on foreign
technologies.
C.
Regulation as a Tool of Strategic Autonomy
Finally,
the EU uses its regulatory power to shape the conditions under which foreign
technologies operate within the European market. The AI Act establishes a
common regulatory framework for the development and use of artificial
intelligence, while the Data Act includes provisions designed to facilitate
access to data and switch between cloud providers. The Digital Markets Act,
meanwhile, provides the Commission with tools to address market power and
practices that can restrict competition and contestability[15].
The Commission’s cloud investigations demonstrate how these regulatory
instruments are increasingly being applied to technologies that are
strategically important to Europe’s digital infrastructure.
The
European Technological Sovereignty Package presented by the Commission in June
2026 brings this regulatory approach together with industrial policy. Alongside
the proposed Chips Act 2.0 and Cloud and AI Development Act, the package
includes an EU Open-Source Strategy intended to reduce dependencies across the
technology stack[16].
This broader conception of sovereignty shows that Europe does not need to
control every technology itself to strengthen its strategic autonomy. It can
also improve its position by shaping markets, reducing lock-in, promoting
interoperability and ensuring that European users retain access to credible
alternatives.
Taken
together, these policies suggest that the EU is pursuing strategic autonomy
through capacity-building, diversification and regulatory leverage, rather than
technological isolation. The approach recognizes that Europe cannot
realistically reproduce every element of the global technology ecosystem
domestically. Its objective is instead to strengthen critical capabilities,
reduce excessive dependence on individual external providers and preserve the
ability to choose between different technological partners. The effectiveness
of this strategy therefore depends not simply on the scale of European
investment or regulation, but on whether these measures create genuine
alternatives and greater resilience in practice. This question is central to
assessing the extent to which reducing technological dependence can actually
strengthen European strategic autonomy.
To
What Extent Can Reducing Technological Dependence Strengthen Strategic
Autonomy?
Reducing
technological dependence can significantly strengthen European strategic
autonomy, but its effects are best understood in terms of resilience, capacity
and freedom of choice rather than complete independence. The cases of AI, cloud
computing and semiconductors suggest that reducing critical dependencies can
improve Europe’s ability to withstand external pressure and retain control over
strategically important technologies. However, these measures cannot remove
Europe from the global technological networks on which its economy continues to
depend. The extent to which dependency reduction strengthens autonomy therefore
depends on whether it creates genuine alternatives and greater room for
European decision-making.
The first
benefit is greater resilience. Dependence on a limited number of external
suppliers can expose Europe to geopolitical tensions, export restrictions and
supply-chain disruptions. This is particularly relevant to semiconductors,
where production capacity and specialized technologies are concentrated among a
limited number of countries and firms. Strengthening European capabilities
while diversifying external suppliers can reduce the impact of disruptions
affecting any individual source. Resilience, however, does not require Europe
to produce everything domestically. A diversified network of suppliers can
provide greater protection while preserving access to technologies and
expertise that Europe cannot efficiently reproduce itself. The objective is
therefore to reduce the consequences of dependence rather than to eliminate
interdependence altogether.
Second,
greater European capacity can increase control over critical infrastructure and
data. Expanding European computing infrastructure, semiconductor capabilities
and cloud alternatives can give governments and businesses greater control over
how essential digital services are operated and where sensitive data are
processed. This is particularly relevant to cloud computing, where dependence
involves not only market concentration but also legal, jurisdictional and
security considerations. The Commission’s Cloud Sovereignty Framework reflects
this broader conception of sovereignty by assessing cloud services across
dimensions including legal and jurisdictional exposure, data and AI, supply
chains, technology and security[17]. Strategic
autonomy therefore involves more than European ownership of infrastructure: it
requires European actors to retain sufficient legal, operational and
technological control over critical systems to avoid excessive dependence on
decisions made outside the EU.
Third,
reducing dependency can strengthen European bargaining power. Strategic
autonomy is partly a question of having credible alternatives. If European
governments and companies can choose between multiple providers, maintain
diversified supply chains and rely on domestic capabilities for some critical
technologies, external suppliers have less ability to impose unfavorable
conditions or exploit European vulnerabilities. This does not require replacing
every American or Asian provider with a European equivalent. Rather, the
existence of alternatives can itself change the balance of power between
European users and external suppliers. In this sense, autonomy can result from
having the capacity to say “no” to a particular provider without losing access
to an essential technology.
However,
the extent of these gains is constrained by several structural limitations.
Complete technological independence is unrealistic. Semiconductor production,
AI development and cloud infrastructure rely on highly specialized and
internationally distributed supply chains. Attempting to reproduce every stage
within Europe would require substantial financial resources and could undermine
the benefits of international specialization. A realistic conception of
technological sovereignty must therefore remain compatible with international
partnerships and continued participation in global markets. The objective is
not to eliminate external dependencies altogether, but to ensure that those
dependencies do not become sources of excessive strategic vulnerability.
Europe also
faces a significant scale disadvantage. US and Asian technology companies
benefit from larger markets, substantial private investment, established
technological ecosystems and economies of scale. European initiatives can
strengthen domestic capabilities without necessarily closing the broader
competitive gap. This is particularly relevant in AI, where access to computing
infrastructure is necessary but not sufficient to produce globally competitive
frontier models. Building European computing capacity may therefore improve
resilience and bargaining power even if Europe continues to lag behind the
United States and China in technological scale and commercialization. Strategic
autonomy and technological leadership are consequently not synonymous: Europe
can become more autonomous without becoming the world’s leading technological
power.
Finally,
technological dependence can shift rather than disappear. Increasing European
production does not automatically create autonomy if that production remains
dependent on foreign inputs. A European AI ecosystem may still rely on foreign
processors and GPUs; European cloud infrastructure may depend on non-European
hardware; and European semiconductor production may require specialized
equipment and components originating elsewhere. Europe’s position in
semiconductors illustrates this particularly clearly: it lacks leading-edge
fabrication capacity while simultaneously occupying a strategically important
position through ASML’s lithography technology[18].
Technological autonomy must therefore be assessed across entire value chains
rather than by looking only at where final products are manufactured. The
proposed Chips Act 2.0 reflects this logic by seeking not only to increase
European production but also to strengthen the resilience of the wider
semiconductor ecosystem and reduce critical dependencies[19].
The extent
to which reducing technological dependence strengthens strategic autonomy is
therefore substantial but conditional. It can increase resilience, improve
control over critical infrastructure and data, and strengthen Europe’s
bargaining position, even without eliminating its reliance on foreign
technologies. The key distinction is between reducing vulnerability and
achieving self-sufficiency. European strategic autonomy will be strongest when
the EU combines sufficient domestic capabilities with diversified international
partnerships and credible alternatives, ensuring that no individual external
actor can exercise excessive leverage over Europe’s technological ecosystem. In
this sense, dependency reduction rather than dependency elimination provides
the most realistic path towards greater European strategic autonomy.
Conclusion
Reducing
the EU’s technological dependence on non-European providers can significantly
strengthen European strategic autonomy, but not by achieving technological
self-sufficiency. AI, cloud computing and semiconductors reveal interconnected
vulnerabilities that Europe is addressing through investment, infrastructure,
diversification and regulation. These measures can increase resilience,
strengthen control over critical infrastructure and improve Europe’s bargaining
power by providing credible alternatives to external providers.
However,
complete technological independence remains unrealistic given the global and
interconnected nature of digital supply chains. European initiatives must
therefore focus on reducing critical vulnerabilities rather than eliminating
all external dependencies. Strategic autonomy requires sufficient capabilities
in strategically important areas, diversified international partnerships and
the ability to switch between providers when necessary.
The goal is
therefore not to become independent of the global technology ecosystem, but to
remain part of it without becoming strategically dependent on it."
References:
1
Stanford Institute for Human-Centered Artificial Intelligence, AI Index
Report 2025, chap. 1, “Research and Development,” sec. 1.3, “Notable AI
Models.” The report states that U.S.-based institutions produced 40 notable AI
models in 2024, compared with Europe’s combined total of three.
Stanford AI Index Report 2025
[2]
TechInsights, “Data-Center AI Accelerator Market – Q1 2024 Update,” April 12,
2024. TechInsights reports that NVIDIA controlled 95 percent of the data-centre
AI accelerator market in 2023.
TechInsights – Data-Center AI Accelerator Market
[3] Eurostat,
“53% EU Enterprises Used Paid Cloud Services in 2025,” February 3, 2026. Eurostat – Cloud Computing
Statistics
[4] European
Commission, Cloud and AI Development Act, Commission Staff Working
Document, 2026. The document reports that AWS, Microsoft and Google together
accounted for around 70 percent of the European IaaS and PaaS market in 2024. European
Commission – Cloud and AI Development Act
[5] European
Commission, “Commission Reaches Preliminary Position that Amazon’s and
Microsoft’s Market Leading Cloud Services Should Be Designated under the DMA,”
June 25, 2026. European Commission – Digital
Markets Act
[6] European
Parliament, Report on European Technological Sovereignty and Digital
Infrastructure, A10-0107/2025, June 11, 2025. The report states that Europe
produces around 10 percent of the world’s semiconductors, compared with 54
percent in Taiwan and 16 percent in China, and notes that Europe lacks
cutting-edge factories capable of producing advanced semiconductors below 10
nm. European Parliament – European
Technological Sovereignty and Digital Infrastructure
[7] ASML,
“EUV Lithography Systems.” ASML states that it is currently the world’s only
manufacturer of EUV lithography systems and describes their use in
manufacturing leading-edge microchips. ASML – EUV Lithography
[8] European
Commission, “Commission Proposes Tech Sovereignty Package to Strengthen
Europe’s Digital Autonomy and Resilience,” June 3, 2026. The package brings
together initiatives on semiconductors, artificial intelligence, cloud
computing and open-source technologies. European Commission – Tech
Sovereignty Package
[9] European
Commission, “Proposal for the Chips Act 2.0,” June 3, 2026. The proposal aims
to strengthen the European semiconductor ecosystem, reduce strategic
dependencies and supply-chain vulnerabilities, and support advanced chip
production in the EU. European Commission – Chips Act 2.0
[10] European
Commission, “AI Factories,” updated August 12, 2026. The Commission describes
AI Factories as ecosystems built around EuroHPC supercomputing capacity to
support the development of advanced AI models and applications.
European Commission – AI Factories
[11] European
Commission, “EU Launches InvestAI Initiative to Mobilise €200 Billion of
Investment in Artificial Intelligence,” February 11, 2025.
European Commission – InvestAI
[12] European
Commission, “EU Launches AI Gigafactories Call to Boost Europe’s Computing
Capacity and Unlock More Than €30 Billion in Investment,” July 30, 2026. The
Commission states that the initiative envisages up to seven AI Gigafactories,
supported by up to €10 billion in EU and national funding.
European Commission – AI Gigafactories
[13] European
Commission, “Commission Launches Market Investigations on Cloud Computing
Services under the Digital Markets Act,” November 18, 2025. European
Commission – Cloud Computing Market Investigations
[14] European
Commission, “Commission Reaches Preliminary Position that Amazon’s and
Microsoft’s Market Leading Cloud Services Should Be Designated under the DMA,”
June 25, 2026.
European Commission – Digital Markets Act
[15] European
Union, Regulation (EU) 2024/1689 of the European Parliament and of the Council
of June 13, 2024, laying down harmonised rules on artificial intelligence
(Artificial Intelligence Act); Regulation (EU) 2023/2854 of the European
Parliament and of the Council of December 13, 2023, on harmonised rules on fair
access to and use of data (Data Act); Regulation (EU) 2022/1925 of the European
Parliament and of the Council of September 14, 2022, on contestable and fair
markets in the digital sector (Digital Markets Act). EUR-Lex –
Artificial Intelligence Act EUR-Lex –
Data Act
EUR-Lex – Digital Markets Act
[16] European
Commission, “Commission Proposes Tech Sovereignty Package to Strengthen
Europe’s Digital Autonomy and Resilience,” June 3, 2026. European
Commission – Tech Sovereignty Package
[17] European
Commission, Cloud Sovereignty Framework, version 1.2.1, October 2025.
European Commission – Cloud Sovereignty Framework
[18] European
Parliament, Report on European Technological Sovereignty and Digital
Infrastructure, A10-0107/2025; ASML, “EUV Lithography Systems.”
ASML – EUV Lithography
[19] European Commission, “Proposal for the Chips Act 2.0,” June 3, 2026. European Commission — Proposal for the Chips Act 2.0
(The views expressed are those of the author and do not represent the views of CESCUBE)
Image Source: Photo by Alexandre Debiève on Unsplash
Chloe Premat is a French graduate student pursuing a Master’s degree in European and Global Studies, specializing in Geopolitical Challenges, at the University of Padua, Italy. Her academic interests focus on international relations, European affairs, strategic autonomy, and emerging geopolitical challenges. At CeSCube, she contributes to research and analytical articles examining contemporary security, political, and technological issues. Through this experience, she aims to strengthen her research and analytical skills while developing a deeper understanding of global strategic dynamics and the challenges shaping Europe’s role in an increasingly interconnected international environment.