Europe’s Semiconductor Sector at a Glance
Semiconductors are materials such as silicon, gallium arsenide, and germanium that exhibit electrical properties intermediate between those of conductors and insulators. They serve as the foundation of integrated circuits (‘Chips’) used in a wide range of essential electronic products, including automobiles, payment cards, medical devices, defence systems, communication technologies, household appliances, and many other digital applications. Microelectronics is the branch of electronics that focuses on the design, fabrication, and integration of these semiconductor-based components into highly miniaturized integrated circuits. In other words, semiconductors provide the material foundation, while microelectronics applies these materials to design and manufacture chips that enable modern electronic systems. As the material and technological backbone of chip design and manufacturing, semiconductors and microelectronics are recognised as Key Enabling Technologies (KETs) that strengthen Europe's technological sovereignty and drive innovation across strategic industrial areas such as defence, aviation, automotive, life sciences and other advanced manufacturing industries.
The European Chips Act established a strategic objective of increasing Europe’s share of global semiconductor production to 20% by 2030. Achieving this ambition requires substantial investment in manufacturing capacity, research and development, technology infrastructure and, critically, people. So that, the skills dimension is becoming one of the most significant constraints on the development of the European semiconductor ecosystem.
The Semiconductor Workforce Challenge
Europe’s semiconductor and microelectronic sectors have set its sights on doubling its market share from less than 10% to 20% by 2030. Assuming a global doubling of chip production by 2030, this means Europe will need to quadruple its production capacity. European chip industry is also expected to grow by 156,000 new positions, reaching nearly 540,000 workers by 2030. Also, taking into account factors such as investment scale and retirement rates, overall employment growth in the sector is projected at around 4.5% by 2030. However, the rapid increase in job openings is outpacing the supply of graduates, further exacerbating the gap over time. According to the ECSA Skills Strategy (2025) the European Union is expected to face a shortage of more than 65,000 skilled professionals by that time.
Also, according to “Addressing the Talent Gap in the EU Semiconductor Ecosystem” report, European countries do not have the necessary human resources to achieve talent goals in chip ecosystem, and the skills gap will reach critical levels by 2030 (2024:62-64):
By 2030, the EU semiconductor industry lacks 33.000 workers in the manufacture of semiconductors, nearly 11.000 workers in design & test (in addition to system, analog and IC designer (IC- integrated circuit designers), 6200 application engineers and 3500 other technical positions.
By 2030, the EU semiconductor industry lacks 3800 system designers, 2350 analog and IC- (Integrated Circuit) designers, and 3000 experts in cybersecurity.
Specialized training hubs needs to be set up in the EU, capable of producing on a yearly basis at least 600 systems designers, 400 analog designers and 500 semiconductor security specialists.
As highlighted in the ECSA Skills Strategy (2025), Europe is facing a deeper structural problem: an ageing workforce (including skilled workers and teachers) combined with a very low inflow of new talent. While 30% of the current workforce is expected to retire between 2023 and 2030, the number of graduates in semiconductor-related fields is growing by less than 1% per year. This structural imbalance is the main driver of the talent gap, undermining Europe’s competitiveness and threatening its economic security. As a result, by 2030, the European semiconductor industry is expected to face an average annual shortfall of around 10,800 skilled workers across the value chain.
Where is the Skills Gap?
According to SEMI Europe Chip Acts Report: Recommendations for a Chips Act 2.0 (2026), European Chip Industry’s core workforce is highly technical, with hardware engineers, technicians, software engineers, and data specialists comprising roughly 75% of all roles and, the majority of the projected talent gap. The expansion of semiconductor manufacturing capacity requires a large workforce capable of operating increasingly complex production environments. Demand is growing for:
Semiconductor manufacturing engineers,
Process engineers,
Equipment engineers and technicians,
Cleanroom specialists,
Maintenance and production technicians,
Quality and reliability specialists,
Testing and packaging professionals,
Workers with advanced knowledge of semiconductor production processes.
Furthermore, European Chips Act 2.0 (2026) highlights the use of emerging technologies in the semiconductor industry and the new skill requirements associated with these developments, including:
Driving breakthrough innovations through the application of AI in semiconductor devices and embedded software development, as well as in technology and materials research. This also includes accelerated digital R&D through virtual development, simulation, and modelling using Digital Twins.
Traffic and energy infrastructures, cybersecurity, defense applications including autonomous machines, IoT devices, sensor networks, and cutting-edge chiplet security.
Low power systems competences, covering chips for battery-powered devices, including sensors, communication protocols, software, and related methodology and architecture competencies.
Also, the implementation of the EU Chips Act 2.0 has accelerated the emergence of new occupational profiles in areas such as the manufacturing of green and smart semiconductor components, Digital IC/ASIC Design, AI-integrated chip design, and low-power IC design. These highly specialised fields require advanced vocational competences and represent a strategic domain for advanced vocational education and training.
Addressing these emerging skills needs will require stronger cooperation between VET providers, Chip Competence Centres, semiconductor companies, research and technology organisations and other ecosystem actors, with training provision connecting initial VET (IVET), advanced VET (AVET) and continuing VET (CVET) pathways. In particular, work-based learning, apprenticeships, industry placements and company-based training can provide learners with practical experience in real or simulated semiconductor environments, while flexible microcredentials can enable both learners and existing workers to acquire and formally recognise specific emerging competences in areas such as AI-enabled chip design, advanced packaging, semiconductor testing, cybersecurity, digital twins and low-power systems. Such industry-led and practice-oriented training models can help ensure that curricula remain aligned with rapidly changing occupational requirements, strengthen the transition from education to employment, and support the continuous upskilling and reskilling of Europe’s semiconductor workforce.
For a sector characterised by highly specialised technologies and complex production environments, work-based learning (WBL) can play a particularly important role. Semiconductor competences cannot always be developed effectively through classroom-based education alone. Learners need opportunities to work with industry-standard equipment, software, simulation environments, cleanroom processes and real production or design challenges. Closer cooperation between VET providers and industry can therefore support:
Microcredentials for flexible learning pathways,
Company-based learning and structured placements,
Apprenticeships and traineeships,
Industry-led practical projects,
Access to semiconductor laboratories and cleanroom environments with simulation and digital-twin-based tools,
Work-based assessment of technical competences.
Semiconductor companies can contribute to the identification of emerging occupational profiles, the development of industry-relevant curricula, the provision of equipment and training environments, and the assessment of practical competences, while VET providers can translate these requirements into accessible and flexible learning pathways. Universities and research and technology organisations can further strengthen this ecosystem by connecting vocational training with technological developments, applied research and emerging areas of innovation. By combining work-based learning, flexible microcredentials and sustained cooperation between VET providers, semiconductor companies, universities, research and technology organisations and sectoral stakeholders, Europe can create more responsive pathways from learning to employment and from employment to lifelong skills development.
In conclusion, a stronger connection between education and industry can help reduce skills mismatches, accelerate the adoption of emerging technologies, strengthen the resilience of the European semiconductor workforce and ensure that investments in semiconductor capacity are matched by the availability of appropriately skilled people. Building this industry-connected skills ecosystem will therefore be essential not only for addressing today’s semiconductor talent shortages, but also for ensuring that Europe has the skills capacity to design, manufacture, secure and innovate the next generation of semiconductor technologies.
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