The European Court of Auditors delivered a severe verdict: Europe will not reach 20% of the global semiconductor market by 2030, but rather 11.7%. The EU Chips Act has framed at least 43 billion euros in announced investments induced by policies through 2030, with the decision-making power resting primarily with companies and Member States. The planned training measures have not yet resolved the shortage of qualified personnel that is slowing production increases. This gap between infrastructure and human capital is the central tension in Europe’s semiconductor bet.
The Essential Points
- The EU Chips Act announced at least 43 billion euros in public investments induced by policies to bring Europe to 20% of the global semiconductor market by 2030, compared to approximately 10% today.
- The European Court of Auditors cites a European Commission forecast of 11.7% by 2030: the potential gap depends on several factors, including financing, private investment, global competition, energy, raw materials, and skills.
- Delivery times for power components lengthened in 2026, a sign of tensions in the industrial chain.
- Taiwan and South Korea are major poles of advanced chip production equipped with training programs closely linked to major corporations; Europe has centers of excellence but lacks comparable institutional articulation.
- An institutional reform of training constitutes a major lever for catching up on the accumulated human capital lag.
43 Billion for Factories Looking for Technicians
ESMC/TSMC in Dresden and STMicroelectronics in Catania are facilities supported by decisions related to the Chips Act. Intel Magdeburg was an announced project that was ultimately abandoned, without a published Chips Act aid decision. The amounts are real, but schedules have already slipped. Behind each semiconductor factory under construction, the question of qualified personnel to operate it remains.
An advanced semiconductor fab is not operated like a conventional assembly line. It requires engineers in materials physics, specialists in etching processes, technicians for maintaining lithographic machines, some of which cost over 100 million euros each. These profiles take years to develop. You don’t recruit them from a job portal.
Training a qualified workforce is among the critical issues for ongoing projects. Tensions in the delivery of certain power components reflect pressure that exceeds production capacity alone: it also affects the ability to operate what is already installed.
The signal is clear. Europe financed the concrete. It provided for training measures within the framework of the Chips Act, even if their amounts remain limited relative to the scale of needs.
Taiwan and Korea’s Lead That Europe Has Not Reproduced
The success of TSMC or Samsung is not explained by a Chips Act that came at the right time. It is explained by the sustained construction of a human ecosystem around the chip industry.
In Taiwan, the model is based on a tight articulation between engineering universities, public research institutes like ITRI, and companies. Engineers trained at National Chiao Tung University or NTHU know, from their early years of study, that they will probably work for TSMC, ASE, or MediaTek. Training is calibrated to industry needs. The flow is regular, predictable, and massive.
In Korea, Samsung and SK Hynix have developed internal training programs that resemble corporate universities more than recruitment plans. The Samsung Group finances university chairs, co-directs master’s programs, and integrates cohorts of engineers into multi-year training cycles before their first job on a fab.
Europe has different resources at this scale. It has centers of excellence, quality research institutes like CEA-Leti in France or imec in Belgium. But CEA-Leti and imec are primarily R&D organizations, even though imec also provides technical and on-the-job training, including for operators and process assistants. The volume is lacking. And above all, the institutional connection between training and the needs of factories under construction combines a European framework of competence centers and national designation procedures.
This lag reflects a relative decline in Europe’s share, which the Court of Auditors does not explicitly link to a gradual disappearance of training capacities.
The Court of Auditors Points to an Objective Disconnected from Its Means
The 20% target by 2030 is a target from the Digital Decade to which the Chips Act contributes, with a stated ambition to double Europe’s share and prove that the continent can weigh in semiconductor geopolitics. The European Court of Auditors examined this objective and its conclusion is direct: it judges the 20% objective highly unlikely and cites a Commission forecast of 11.7% by 2030.
The gap is not minor. It represents approximately all the expected growth. The Court attributes it to probable insufficient financing, global competition, actions by Member States and the private sector, as well as factors such as energy.
Building a fab and training engineers require comparable and lengthy timeframes. These two timelines should have been aligned from the outset in the Chips Act’s design. Projects and the Chips Act framework were accompanied by training measures, whose scope has not yet fully addressed the documented shortage.
S&P Global emphasizes that global semiconductor demand will continue to grow, driven by AI, transport electrification, and industrial equipment. Europe is targeting a share of an expanding market. Reaching 11.7% of a much larger market than in 2023 still represents a production volume greater than current output. The goal of technological independence for critical segments remains compromised.
This gap between ambition and realistic means is a design problem, not an execution problem. And there is still time to draw the consequences.
Warning Signs That Industry Is Already Measuring
The lengthening of delivery times for power components is not simply a supply chain anecdote. They reveal a real tension between industrial demand and the ability to meet it. When an automotive company or industrial equipment manufacturer waits more than a year for a critical component, it adjusts its investments, technological choices, sometimes its location.
This pressure fuels the problematic cycle that the EU Chips Act sought to break: Europe depends on chips it does not manufacture in sufficient volume, which creates geopolitical and industrial vulnerability, which justifies massive investment, but if the investment does not produce the expected capacity, the vulnerability remains intact.
Industrial robots illustrate this mechanism exactly: the more automation progresses, the more demand for specialized semiconductors intensifies, and the more each bottleneck in the chip production chain reverberates across the entire economy. The EU Chips Act was designed to cut this knot. Its effectiveness depends heavily on the parallel development of human capacity.
GlobX, which tracks electronic component markets, reports that shortages in certain segments also affect European defense and aerospace actors, two sectors that the continent’s industrial sovereignty is precisely meant to protect. The urgency is not abstract.
Available Levers to Modify Europe’s Trajectory by 2035
The projection to 11.7% by 2030 describes the current trajectory, not a permanent ceiling. Decisions made now can alter its course, with visible effect between 2030 and 2035.
Two levers are in the hands of European institutions and Member States.
The first is training. There are models to accelerate. Imec in Belgium already offers short, intensive training for fab technicians. CEA-Leti trains engineers in partnership with industrialists. These programs operate on a small scale.
Scaling them up to a continental level, with dedicated funding and quantified objectives for graduate cohorts, is technically feasible. Germany has launched discussions with the Länder to integrate semiconductor modules into engineering curricula at technical universities. France has opened a dedicated campus in Crolles, in the wake of the STMicroelectronics investment. These initiatives exist. They remain dispersed.
The second lever is retention. Europe trains engineers, a significant portion of whom can be attracted to destinations offering higher salaries and larger-scale projects. This tension between R&D investment and talent policy is documented: without reform of working conditions and compensation in cutting-edge industries, Europe will finance talent training for others. The fabs under construction can serve as anchors if they offer career prospects comparable to those in Hsinchu or Suwon. For this, they must be fully operational, at levels of technology and volume that make positions attractive.
Surpassing 11.7% would require fabs in effective production, sufficient flow of trained personnel, and mechanisms for retaining talent. The current framework contains significant uncertainties about investments and projects.
The 11.7% trajectory comes from the IDC projection taken up by the Commission; production schedules, capabilities, and technological dependencies constitute important risks and constraints without being documented as the sole calculation hypotheses. In this case, the Chips Act will have provided for mobilizing at least 86 billion euros for capacity bringing Europe’s share to 11.7% in 2030, far from the 20% objective, and the question of industrial sovereignty will remain open for the following decade.
Training Quickly or Training Well: The True Political Choice Facing Brussels
There is a real tension in the response to be provided. Rapidly training process technicians to supply fabs under construction requires an intensification of programs. Training engineers capable of designing the next generation of processes, of rivaling TSMC or Intel’s R&D teams, takes much longer.
Europe needs both. But Chips Act funding does not provide a specific budget line dedicated to large-scale training. Education remains a national competence, and European coordination on this subject remains fragmented. Each Member State develops its own responses, often without clear knowledge of what neighboring fabs will actually recruit.
Building infrastructure without simultaneously training operators risks leading to underutilization of productive assets. In semiconductors, the cost of underutilization is much higher because equipment costs hundreds of millions of euros and windows of technological competitiveness are narrow.
The European Commission and the European Semiconductor Board constitute the coordination mechanism for responding to semiconductor crises. The Chips Joint Undertaking, resulting from the transformation of the Key Digital Technologies Joint Undertaking by regulation (EU) 2023/1782 adopted alongside the Chips Act, drives research and training. Its mandate on training includes skills and training actions, even if the amounts and results can be discussed. Expanding it, giving it quantified objectives and its own funding for training programs, would be a political decision within immediate reach.
An adjustment of funding priorities toward training constitutes a critical lever for achieving the intended industrial success.
Sources
- LineSight, Building Europe’s Chip Future: Navigating Challenges in the Semiconductor Industry
- European Court of Auditors, Report on the EU Chips Act
- S&P Global, analyses of the global semiconductor market
- GlobX, tracking of electronic component markets
