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Jan-Bart Smits

Between January and July 2026, Stanton Chase developed three regional Semiconductor Spotlight reports focused on market dynamics and executive leadership imperatives. The research found that North America, EMEA, and Southeast Asia are all facing engineering and leadership talent shortages.The Semiconductor Bottleneck is Moving from Lithography to Advanced PackagingThe semiconductor industry is growing rapidly. Currently, IDC is forecasting that global semiconductor revenue will reach $1.29 trillion by the end of 2026, representing more than 50% growth over 2025. A separate McKinsey report takes a wider measure of the industry than sales alone, accounting for in-house design teams in its projections. On this wider measure, the semiconductor industry is projected to reach $1.6 trillion by 2030 under McKinsey’s base-case scenario.These revenue gains are being spent on innovations in memory and advanced packaging to help address the memory wall. IDC identifies high bandwidth memory (HBM) as the primary constraint in the AI accelerator supply chain. However, most HBM capacity is pre-committed through 2026, with forward allocations reaching into 2027. With strained capacity around the world, IDC does not expect any meaningful new supply before late 2026 at the earliest. Companies wanting to circumvent capacity limits must build their own facilities, but this requires experienced operations leaders.Why Semiconductor Subsidies Cannot Buy Packaging and Yield ExpertiseGovernments around the world have tried to solve the capacity shortage with public money. McKinsey’s analysis of the New Industrial Policy Observatory tracker noted a roughly 390% growth in industrial-policy actions between 2017 and 2024, listing defense, semiconductors, and high-end equipment as the focus.Government investments also go where skills are thinnest. For example, Deloitte found that expertise in back-end steps like molding and bumping is scarce in the United States and Europe. These are the two regions spending the most on bolstering their industries, and subsidies are quickly funding new packaging lines. Although facilities investments are being made, engineers who can ensure the success of these lines have typically been trained over decades. As it stands today, there are not enough skilled senior engineers to staff new buildouts.How Semiconductor Talent Shortages Differ Across North America, EMEA, and Southeast AsiaThe U.S. is rebuilding the manufacturing infrastructure that was moved offshore after the year 2000. Section 48D, a manufacturing investment tax credit to incentivize domestic semiconductor production, now offers a 35% investment credit for advanced manufacturing facilities, up from the 25% rate set in 2022. The higher rate applies to qualifying property placed in service after 2025, and the credit does not apply to projects whose construction begins after December 31, 2026.Although this incentive is large, the country’s workforce is not in place to staff new manufacturing sites. McKinsey’s 2024 labor analysis stated that the U.S. semiconductor manufacturing workforce was down 43% from its peak in 2000. While around 1,500 engineers join the semiconductor workforce each year, forecasts show demand for 88,000 new engineers by 2029.Europe’s shortage runs the other way. While the U.S. lacks engineers it never trained, Europe is losing its engineers to retirement. The European Court of Auditors highlighted that the EU’s 20% output target is very likely to go unmet and cited skilled worker shortages among the factors affecting implementation. The European Chips Skills Academy, coordinated by SEMI Europe, reported that nearly 30% of the European semiconductor workforce is expected to retire by 2030. At the same time, graduate inflow is rising by less than 1% each year.Furthermore, Southeast Asia trains a high volume of engineers, but some Southeast Asian countries struggle to keep them. Malaysia’s deputy trade minister noted that of every ten graduates trained, only three remain in the country after a few years. Those engineers typically move within Southeast Asia rather than out of it, but they move to Singapore, where pay is better. While Singapore represents 10% of the global chip market, it also struggles with an aging workforce. To keep pace with its demand, Singapore recruits from neighboring countries.Every Regional Semiconductor Facility Competes for the Same Talent PoolEven though each region is specializing in something specific, all of them are recruiting the same engineering experts. For example, Deloitte expects Southeast Asia and India to grow as hubs for high-volume, back-end manufacturing. Meanwhile, Taiwan, the U.S., Japan, and parts of Europe are furthering heterogeneous integration and advanced packaging innovation. Deloitte concludes that talent constraints in advanced packaging may hold back regional autonomy goals around the world, even as back-end capacity keeps expanding in Asia.Every program described exists to move advanced production out of Asia; however, the only people who have run advanced production at scale are in Asia. Public money can pay for a fab, but it cannot produce an experienced operator. This forces each region to compete for the same small group. For instance, hiring an engineer in the U.S. removes them from Taiwan.What Semiconductor Leadership Planning Should Look Like Before 2030To adequately staff new facilities and meet rising demand, hiring decisions must be made before 2030. Chipmakers that fill senior plant and engineering roles on time do so by planning for new hires years in advance rather than waiting until someone resigns. Companies that hire successfully also benchmark pay against Taiwan and South Korea and allocate enough budget for relocation.This article summarizes the key findings of the three Semiconductor Spotlight reports and their shared talent development roadblocks. Each white paper covers its own region in depth, outlining where investments have been committed and the roles that need to be filled.Read each report to learn more.Semiconductor Spotlight: North AmericaSemiconductor Spotlight: EMEASemiconductor Spotlight: Southeast AsiaAbout the AuthorJan-Bart Smits is managing partner at Stanton Chase Amsterdam, global sector leader for technology, and global subsector leader for semiconductors. In his more than 30-year career, his work has taken him across semiconductors, technology, and professional services, and his earlier global roles at Stanton Chase included global practice leader for professional services and global chair. He contributed to each of the three regional Semiconductor Spotlight reports and holds a master’s degree in astrophysics from Leiden University.
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The semiconductor industry faces an uncomfortable contradiction. Markets are expanding and demand continues rising, but the talent pool is shrinking.By 2030, the industry will need to add 1 million skilled workers globally, with shortages of over 100,000 engineers in Europe and more than 200,000 engineers in Asia-Pacific. This expansion requires at least 100,000 second-line leaders and 10,000 third-line leaders—many of whom must come from outside the industry.Markets Keep Growing, Leadership Doesn'tThe industry's outlook remains optimistic. Nearly one in five (19%) semiconductor executives anticipate continued demand growth without inventory excess in the next four years. Global sales hit $627.6 billion in 2024—a 19.1% increase driven by AI advancements, consumer electronics demand, 5G adoption, and automotive innovation.Governments are backing this growth with large investments too. The European Chips Act aims to double the EU's production share to 20% by 2030 with €43 billion. Companies like NXP Semiconductors, Infineon Technologies, and STMicroelectronics are expanding. Taiwan Semiconductor Manufacturing Company (TSMC) remains the world's largest contract chipmaker. The UK government unveiled a £1 billion strategy over 10 years, while the CHIPS and Science Act allocated $52.7 billion for US manufacturing and research.But there aren't enough semiconductor leaders to manage this growth.The Education CrisisThe talent shortage begins in universities. Electrical engineering and computer science enrollment has been declining for years. Germany saw 6.5% fewer STEM students in 2021 than the previous year.An analysis of recent data shows concerning patterns. While Germany had 81,934 electrical engineering students in 2018, Ireland had only 742 new electrical engineering students in 2017. The United States awarded just 13,767 bachelor's degrees in electrical engineering in 2018.Retirement and Skills GapsWhile universities produce fewer graduates, experienced leaders are retiring. One-third of US semiconductor employees are 55 or older. In Germany, one-third of the workforce will retire within the next decade.The job itself is also changing. Artificial intelligence and machine learning have surpassed systems architecture as the most sought-after skills in European markets. Software engineers specializing in embedded programming are becoming more important than traditional design engineers.Competition and TurnoverThe semiconductor industry competes with other tech sectors for talent, and ninety-two percent of tech leaders report challenges finding skilled workers.Employee turnover is accelerating as well. Fifty-three percent of semiconductor workers were expected to resign in early 2024, compared to 40% in 2021. Top reasons include lack of career development (34%) and insufficient workplace flexibility (33%).Geographic ChallengesManufacturing concentration creates additional problems. Taiwan handles 65% of global manufacturing, China 15%, South Korea 12%, and the US 12%. Despite this, U.S.-based companies hold roughly 46.3% of global market share.Each region has developed different skill sets, making it difficult to move leaders across markets.What Companies Are DoingAbout 60% of senior executives believe semiconductor companies have weak employer brands compared to higher-profile tech companies. Many are working to change this through competitive compensation, improved work-life balance, and better career opportunities.Some companies are expanding their search beyond traditional candidates, too. Seventy-three percent now use skills-based hiring, focusing on capability rather than traditional backgrounds. Others target adjacent tech sectors for executives with transferable skills.Retention has become more important as well. With the tech industry's 13.2% attrition rate, companies are investing in career progression and workplace flexibility.Diversity initiatives are also still gaining traction worldwide. Women represent only 17% of semiconductor tech roles, compared to 23% in the industrial sector.The semiconductor industry's future depends on solving this talent paradox. Companies that act decisively to attract, develop, and retain leadership talent will be best positioned to capitalize on market opportunities.About the AuthorJan-Bart Smits is Managing Partner at Stanton Chase Amsterdam and Global Subsector Leader for the Semiconductor industry.
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