The European Union’s Institute for Security Studies (EUISS) and the French think tank Institut Montaigne published a joint report warning that Europe’s semiconductor industry faces a highly volatile, unstable future. Released on Thursday, July 2, 2026, as part of the 18-month, EU-funded “Chips Diplomacy Support Initiative,” the comprehensive study details a convergence of geopolitical and industrial risks. The report’s authors argue that Europe is increasingly trapped in a geopolitical pincer, squeezed between aggressive Chinese export controls on raw materials and a growing, highly vulnerable dependence on United States software and design technologies.
The publication of this warning arrives at a delicate moment for global supply chains, coinciding with retail-sector alarms over a tightening global silicon shortage. Earlier on Thursday, the chief executive officer of Currys, Britain’s largest consumer electronics retailer, warned that surging demand for artificial intelligence data centers is rapidly consuming the world’s supply of memory chips. This supply squeeze will inevitably push up retail prices for smartphones, laptops, and consumer electronics later this year. By highlighting both immediate raw material deficits and long-term tech dependencies, the joint European report demonstrates that the continent’s chip-making ambitions remain highly vulnerable to external trade disruptions.
The China Risk: Critical Minerals and Rare-Earth Magnets
For over a decade, China has systematically consolidated its control over the primary inputs required to manufacture modern microchips and high-tech equipment. Today, Beijing holds a near-monopoly on the extraction, processing, and distribution of several key elements on the critical raw materials list, including gallium, germanium, antimony, and rare-earth permanent magnets. These materials are completely indispensable for producing advanced semiconductor manufacturing tools, clean energy systems, and military hardware.
The joint report points to China’s willingness to implement strict, retaliatory export controls on these critical minerals as a persistent and immediate danger to the European semiconductor sector. If trade tensions between Brussels and Beijing escalate further over existing EU tariffs on Chinese electric vehicles, China could easily choke off the supply of these essential elements, paralyzing European equipment makers. This material vulnerability is paired with the ever-present geopolitical risk of a military conflict in the Taiwan Strait. If a blockade or conflict were to disrupt operations at Taiwan Semiconductor Manufacturing Company (TSMC), Europe would lose access to the advanced 2-nanometer and 3-nanometer logic chips that power its automotive, medical, and aerospace sectors, triggering a catastrophic economic shutdown.
The US Leverage: The MATCH Act and Transatlantic Friction
While China presents an immediate threat to raw materials and shipping lanes, the report warns that Europe’s dependence on the United States represents a deeper, structural vulnerability. Almost all of the sophisticated electronic design automation (EDA) software and intellectual property (IP) tooling that European engineers use to design modern microchips originates in the United States, leaving European designers highly dependent on American software licenses.
This dependence has become an acute concern for European policymakers following the introduction of a new bill in the U.S. Congress known as the MATCH Act. If passed, the legislation would grant Washington the unilateral authority to impose strict export controls on allied nations and their companies if they do not align their China trade policies with U.S. national security guidelines within a set window. This proposed law represents a direct threat to European technological sovereignty, as it would enable the U.S. government to dictate what European companies can sell and to whom.
This friction is particularly visible in the ongoing export standoff surrounding ASML, the Netherlands-based lithography giant that is currently Europe’s most valuable listed technology company. Under heavy pressure from Washington, the Dutch government has already blocked ASML from exporting its advanced Deep Ultraviolet (DUV) and Extreme Ultraviolet (EUV) lithography systems to Chinese customers. The MATCH Act would codify and expand this unilateral U.S. leverage, allowing Washington to bypass the Dutch government entirely to impose direct restrictions on ASML’s operations. This dynamic proves that while Beijing remains the largest external competitor, dependence on Washington has become a major source of strategic anxiety for European leaders.
Structural Weaknesses of the EU Chips Act and the 10% Trap
To address these vulnerabilities and build domestic manufacturing capacity, the European Union launched the ambitious EU Chips Act in 2023. The policy momentum successfully mobilized over €80 billion (approximately $93 billion) in public and private investment commitments, nearly doubling the €43 billion initially targeted, with total investment on track to reach €100 billion by 2030. These funds are supporting several flagship projects, such as the €10 billion European Semiconductor Manufacturing Company (ESMC) joint venture in Dresden, Germany, which combines TSMC, Bosch, Infineon, and NXP to build a high-performance automotive-grade fabrication plant.
Despite these massive capital commitments, the report reveals that Europe’s share of global semiconductor production remains stubbornly flat, hovering near 10%. Translating policy announcements into commercial-scale manufacturing has proven to be incredibly difficult due to several deep-rooted structural weaknesses:
- High Operational Costs: The cost of electricity, construction, and compliance inside Europe is significantly higher than in East Asia, making it difficult for European fabs to compete on price.
- Weak Domestic Demand: Unlike North America, which has a massive domestic market for advanced logic and memory chips to power cloud data centers, Europe’s domestic demand is concentrated primarily in lower-margin automotive and industrial microcontroller chips, reducing the incentive for manufacturers to build advanced nodes locally.
- The Geography Problem: Key elements of the semiconductor supply chain remain geographically concentrated in Asia, meaning that even if Europe builds the physical factories, it must still import raw wafers, packaging materials, and chemical inputs across long, vulnerable maritime shipping routes.
These structural limitations suggest that simply throwing public subsidies at new factories is not enough to secure technological independence, and that Europe risks spending billions of euros to build advanced facilities that may struggle to find local customers or secure essential raw materials.
The Push for Chips Act 2.0 and Regulatory Ambiguity
Recognizing the limitations of its initial policy, the European Commission proposed a “Chips Act 2.0” as part of its broader “technology sovereignty package.” The new initiative aims to address Europe’s manufacturing gaps, simplify the regulatory framework for new projects, and establish a more robust system for monitoring global semiconductor supply chains to identify disruptions before they cause industrial crises.
However, industry experts and analysts have expressed skepticism over the upcoming proposal, warning that Brussels risks confusing governance architecture for industrial strategy. Critics point out that writing complex regulatory frameworks, creating coordination committees, and establishing monitoring bodies do not solve the fundamental engineering and cost challenges of running a profitable semiconductor business. Unless the European Commission can find a way to lower energy costs, build domestic demand for advanced nodes, and secure stable raw material supplies, the Chips Act 2.0 may end up as another round of bureaucratic paperwork that fails to deliver actual, commercial-scale production.
The Japan-Europe Semiconductor Alliance and Rapidus
To find a geopolitically safer alternative to the Taiwan-monopoly situation, European policymakers are looking to build strategic alliances with other democratic nations in East Asia. The most prominent example of this strategy is the series of memorandum of understanding (MoU) signed by Japan’s state-backed advanced semiconductor foundry, Rapidus, with the UK Semiconductor Centre and Italy’s Chips-IT.
These agreements aim to initiate close cooperation in the semiconductor field, facilitate Rapidus’ customer acquisition, and build a secure, parallel supply chain. The logic of this cooperation is based on the assumption that chips manufactured in Hokkaido, Japan, are geopolitically safer than chips manufactured in Taiwan. However, some supply chain experts warn that this premise misreads the geographic reality of East Asia. Japan faces its own severe geopolitical risks, including active territorial disputes with neighboring powers and a high vulnerability to major seismic events, meaning that shifting Europe’s dependence from Taiwan to Japan does not resolve the underlying vulnerability of relying on long-distance maritime imports for critical components.
The Curry’s Price Warning: The Silicon Squeeze Hits the High Street
The strategic and geopolitical vulnerabilities of the chip sector are already beginning to have a direct, measurable impact on everyday consumers. Alex Baldock, the chief executive officer of Currys, Britain’s largest consumer electricals retailer, warned that a global memory chip shortage is set to drive up the cost of consumer electronics later this year.
Baldock explained that the explosive growth of generative artificial intelligence and high-performance cloud data centers is consuming an unprecedented portion of the world’s silicon supply. Because semiconductor manufacturers are dedicating their limited production lines and advanced packaging capacities to meet the highly lucrative demand for AI processors, there is less raw silicon left over to manufacture standard memory and logic chips for consumer devices. This supply squeeze will inevitably cause availability challenges and drive price inflation for smartphones, laptops, and household electronics, proving that the tech war and the AI boom are directly squeezing the wallets of ordinary consumers.
The Labor Deficit: Sourcing 300,000 Skilled Workers
Aside from raw materials and software tooling, the global semiconductor industry faces a critical, highly localized human capital bottleneck. The construction of dozens of new fabrication plants around the world has triggered an intense talent war, with countries scrambling to recruit the highly specialized engineers, material scientists, and technicians required to run these highly automated facilities.
This skills gap represents a massive challenge for every major region:
- China: Despite its aggressive, state-funded semiconductor push, China faces a projected shortage of more than 300,000 skilled semiconductor workers, slowing down its domestic manufacturing ambitions.
- Europe: The continent’s academic institutions are not producing enough specialized microelectronics graduates to meet the needs of the new fabs planned in Dresden and Crolles, forcing companies to compete aggressively for a limited pool of local talent.
- The Global Squeeze: Because running a modern fab requires years of specialized training and hands-on experience, this talent deficit cannot be resolved quickly, representing a major bottleneck that will likely slow down the commercial ramp-up of new facilities worldwide.
This human capital deficit means that even if governments successfully build the physical factories and secure the raw materials, they may struggle to find the workers necessary to run them, highlighting the need for comprehensive, long-term investments in STEM education and high-tech workforce training.
Navigating the Geopolitical Tightrope of Decoupling
The ultimate lesson of the EU-China trade friction and the semiconductor supply chain crisis is that complete technological decoupling is an illusion. In a highly globalized economy, the production of a single advanced semiconductor requires a complex, interdependent network of raw materials, chemical inputs, software designs, and manufacturing equipment that spans multiple continents. No single nation or trading bloc possesses the natural resources, industrial capacity, and scientific talent to build an entirely independent, domestic supply chain from scratch.
For Europe, navigating this reality requires a highly pragmatic, defensive approach. While the bloc must continue to use tools like the DMA to protect its domestic markets from state-subsidized competition, it must also maintain open lines of communication and stable trading relations with Beijing to secure its access to critical raw materials and transition components. Attempts to implement wholesale protectionist tariffs or enforce complete decoupling will likely invite swift, painful retaliation, raising costs for consumers and slowing down the transition to a clean, digital economy. By focusing on smart diversification and building resilient alliances with democratic partners like Japan and the United States, Europe can build a secure, balanced technology ecosystem that protects its national security without cutting itself off from the global economy.
Conclusion
The joint report by the EUISS and the Institut Montaigne serves as a sober, realistic warning for the future of Europe’s semiconductor sector. Squeezed between Chinese export controls on critical raw materials and a growing, highly volatile dependence on United States software and design technologies, the continent’s chip-making ambitions face a bleak future unless policymakers take immediate, strategic action. While the 2023 EU Chips Act successfully mobilized over €80 billion in commitments, the continent’s global production share remains stubbornly flat near 10%, proving that translating policy momentum into commercial-scale manufacturing requires resolving deep-rooted structural weaknesses.
As the European Commission prepares to evaluate its upcoming Chips Act 2.0, the focus must shift away from writing complex governance frameworks and toward resolving the practical, physical bottlenecks of the industry. Securing access to critical raw materials, lowering industrial energy costs, and investing in high-tech engineering education are essential requirements for building a competitive, resilient semiconductor sector. In an era increasingly defined by geopolitical volatility and technological balkanization, Europe’s ability to balance its environmental and security ambitions with realistic economic planning will determine its long-term technological sovereignty, ensuring that the physical foundations of the digital age are secured for generations to come.
