Closing: Made in Europe

What eight episodes on European excellence taught us — and what comes next

By VastBlue Editorial · 2026-03-26 · 13 min read

Series: Made in Europe · Episode 9

Eight Stories, One Question

If you asked a thousand people in any major city on earth to name the most important technology companies in the world, the answers would follow a predictable pattern. Apple. Google. Microsoft. Amazon. Nvidia, perhaps, if the respondent follows financial markets. The list would be overwhelmingly American, occasionally Chinese, and almost never European. This is not because Europeans do not build important technology. It is because the technology Europeans build tends to be invisible — buried so deep in the global infrastructure that the people who depend on it every day have no idea it exists.

Over the course of this series, we have travelled from a flat Dutch town in North Brabant to the underground ring of a particle accelerator beneath the Franco-Swiss border. We have examined how a Swedish startup restructured the economics of an entire entertainment industry, how a French software company became the invisible architecture behind every aircraft on earth, and how a British chip design firm embedded itself so deeply into the global electronics supply chain that removing it would be like pulling the nervous system out of a living organism. We have watched a German enterprise software company quietly become the operating system of half the world's supply chains, an entire Swiss industry survive a technological extinction event through sheer obstinacy and reinvention, and a European physics laboratory accidentally create the most transformative communication platform in human history — as a side project.

Each of these stories stands on its own. Each company, each product, each system was profiled for what it is and what it does — not as a proxy for continental pride. But taken together, these eight episodes pose a question that is difficult to ignore: why does almost nobody know this?

The global technology narrative, as it is commonly told, is an American story. Silicon Valley invented the future, and everyone else is catching up. China is the ambitious challenger. India is the emerging talent pool. Europe is the museum — beautiful, historically significant, and increasingly irrelevant to the main plot. This narrative is not entirely wrong. The United States has produced extraordinary technology companies and continues to lead in areas from artificial intelligence to cloud infrastructure. But the narrative is dangerously incomplete. And the incompleteness is not a matter of opinion. It is a matter of evidence.

The Infrastructure Layer

What connects ASML, Dassault Systèmes, ARM, and SAP is that they are not consumer brands. They are infrastructure. They operate at the layer of the technology stack where failure is not an inconvenience but a catastrophe. If ASML stops building lithography machines, the global semiconductor industry stops manufacturing advanced chips within months. If Dassault Systèmes' CATIA software disappeared overnight, no new aircraft could be designed. If ARM's instruction set architecture were withdrawn from licence, every smartphone manufacturer on earth would need to redesign their processors from scratch. If SAP's enterprise systems went offline, supply chains from automotive to pharmaceutical would seize.

This is not the kind of dominance that makes headlines. Infrastructure companies do not launch products at keynote events with dramatic lighting and standing ovations. They do not have consumer-facing apps with download counts in the billions. They do not produce CEOs who become cultural figures. What they produce is dependency — the quiet, structural kind that becomes visible only when something goes wrong.

Consider the arithmetic. ASML holds one hundred per cent of the market for EUV lithography — the technology required to manufacture any chip at the 7-nanometre node or below. ARM's architecture is inside an estimated 99 per cent of the world's smartphones. SAP's software handles roughly 77 per cent of the world's transaction revenue. Dassault Systèmes' platforms are used to design more than 75 per cent of the world's commercial aircraft. These are not market shares in the conventional competitive sense. They are structural dependencies. The products and services that billions of people use every day — their phones, their flights, their supply chains, their financial systems — flow through European-built infrastructure that most of those people have never heard of.

The characteristic European contribution to global technology, as this series has documented, is not the application layer. It is the foundation layer. Europe builds the tools that build the tools. The machines that make the machines. The software that designs the hardware. The protocols that carry the data. The standards that make interoperability possible. This is not a consolation prize. It is, in many ways, a more durable form of technological power than the consumer platforms that capture most of the attention and most of the market capitalisation.

There is a test that clarifies this distinction. Ask: what would happen if this company disappeared tomorrow? If Facebook disappeared, people would find other ways to share photographs and argue about politics. If Uber disappeared, people would hail taxis. These are inconveniences, not catastrophes. But if ASML disappeared, the world could not manufacture advanced semiconductors. If ARM disappeared, the world could not design the processors that go inside phones, cars, and servers. If CERN's web protocols had never been released into the public domain, the entire architecture of digital communication would not exist in its current form. The distinction between infrastructure and application is not about prestige. It is about replaceability. And the companies profiled in this series are, in their respective domains, irreplaceable.

The Pattern of European Excellence

Across all eight episodes, a pattern emerged — not one we imposed, but one that the evidence insisted upon. European technology companies that achieve global dominance tend to share a set of characteristics that distinguish them from their American and Asian counterparts. These are not cultural generalisations or national stereotypes. They are observable, documentable traits that appear with striking consistency across very different industries, countries, and time periods.

The first is patience. ASML spent three decades developing EUV lithography before it entered high-volume production. The Swiss watch industry spent fifteen years rebuilding itself after the quartz crisis. Dassault Systèmes has been refining its 3D design platform for over forty years. ARM operated for years as a small Cambridge company before its architecture became ubiquitous. These are not the timelines of venture-backed startups chasing quarterly growth metrics. They are the timelines of organisations that understand the difference between building something fast and building something that lasts.

The second is depth. Every company profiled in this series achieved its position not by being broadly competent but by being incomparably deep in a specific domain. ASML does not make semiconductor equipment in general — it makes lithography machines, and within that category, it makes the only machines capable of printing at the most advanced nodes. Dassault Systèmes does not make software in general — it makes the modelling platform without which complex physical products cannot be designed. This depth is not accidental. It is the product of sustained investment in a single problem over decades, compounding knowledge and capability in ways that broad-spectrum competitors cannot replicate.

The third is ecosystem thinking. ASML's integration of Zeiss optics, TRUMPF lasers, and hundreds of specialist suppliers into a single functioning machine is not a supply chain — it is an orchestrated system of distributed expertise. CERN's collaborative model, bringing together physicists from dozens of countries to work on shared infrastructure, produced the World Wide Web as an unintended consequence of solving a data-sharing problem. The Swiss watch industry's survival depended on the canton-level ecosystem of specialist artisans, toolmakers, and training institutions that no single company could have maintained alone. European excellence, as documented in this series, is rarely the achievement of a single firm. It is the achievement of a system.

There is a fourth trait worth naming, though it receives less attention than the first three: institutional memory. The companies profiled in this series are not just old — they are institutionally deep. They retain knowledge across generations of engineers, across leadership transitions, across market cycles. When ASML's engineers encounter a problem with their latest High-NA EUV system, they draw on institutional knowledge that stretches back to the company's founding in a Philips research lab in 1984. When Swiss watchmakers at Patek Philippe or Audemars Piguet hand-finish a movement, they are applying techniques that have been transmitted from master to apprentice for centuries. This institutional depth cannot be purchased, replicated, or fast-tracked. It can only be accumulated. And Europe, for all its faults, is very good at accumulating.

European technology companies that achieve global dominance share three traits: patience measured in decades, depth measured in irreplaceability, and ecosystem thinking that distributes expertise across institutions rather than concentrating it in one.

Series observation

What Europe Builds — and What It Fails to Build

It would be dishonest to close this series with uncritical celebration. The same evidence that demonstrates Europe's extraordinary capability at the infrastructure layer also reveals a persistent weakness at the application layer. Europe builds the lithography machines but does not manufacture the chips. Europe designs the chip architectures but does not capture the value of the devices they power. Europe invented the World Wide Web but built none of the platforms that dominate it. Europe's enterprise software runs half the world's supply chains, but the consumer technology companies that sit atop those supply chains — Apple, Amazon, Google, Meta — are all American.

This is not a new observation, but it gains specificity when examined through the lens of the companies profiled in this series. ASML is worth over €300 billion. TSMC, which uses ASML's machines to manufacture chips, is worth over $800 billion. Apple, which designs the chips that TSMC manufactures, is worth over $3 trillion. The value chain is clear: Europe builds the enabling tool, Asia does the manufacturing, America captures the consumer margin. At each step up the stack, the value multiplies — and Europe is concentrated at the bottom.

The reasons for this are structural, not cultural. Europe's fragmented regulatory environment, its smaller domestic market compared to the United States or China, its historically conservative venture capital ecosystem, and its lack of a unified digital single market all contribute to an environment where infrastructure companies thrive but platform companies struggle to scale. A company like Spotify — the one consumer-facing European technology success story profiled in this series — succeeded in part by leaving Stockholm for a dual listing in New York, accessing American capital markets and an American investor class that understood consumer technology growth stories.

But the infrastructure-versus-application framing may itself be outdated. As artificial intelligence reshapes every industry it touches, the infrastructure layer is becoming the value layer. The companies that control the tools — the chips, the design software, the enterprise data, the research infrastructure — may find themselves in an increasingly powerful position. If the next decade belongs to AI, and if AI requires specialised hardware, advanced simulation, industrial data, and scientific computing, then Europe's strength at the infrastructure layer may prove to be not a limitation but an advantage.

Consider what AI actually requires at industrial scale. It requires semiconductors — and Europe builds the machines that manufacture them. It requires simulation and digital twin technology — and Europe builds the leading platforms. It requires vast quantities of structured enterprise data — and Europe's enterprise software companies sit on the largest repositories of industrial data on earth. It requires fundamental research in mathematics, physics, and computer science — and European universities and research institutions remain among the world's strongest. The AI revolution, as narrated from San Francisco, is a story about software and models. But software and models run on hardware, which runs on chips, which are manufactured by machines that are built in Veldhoven. The stack has a bottom. Europe is at the bottom. And the bottom is where the leverage is.

The Question of Continuity

The most important question this series raises is not whether Europe builds things the world depends on. It does. The evidence is overwhelming and specific. The question is whether Europe will continue to build them.

Every company profiled in this series faces versions of the same challenge. ASML must continue to push the boundaries of physics while navigating export controls that constrain its market. ARM must maintain architectural relevance as competitors develop alternative instruction sets and custom silicon designs proliferate. SAP must transform from an on-premise enterprise software company into a cloud-native platform without losing the customers who depend on its legacy systems. The Swiss watch industry must defend mechanical craftsmanship against a new generation of smartwatches that redefine what people expect from their wrists. Dassault Systèmes must evolve its platform to incorporate AI-driven generative design without sacrificing the engineering rigour that makes it trusted for safety-critical applications. CERN must secure funding for its next-generation collider — the Future Circular Collider — in a political environment where fundamental research budgets are under pressure from every direction.

None of these challenges are trivial. And none of them can be solved by the companies alone. They require the ecosystems that produced them — the universities, the research institutions, the public funding agencies, the regulatory frameworks, the training systems — to continue functioning. They require a political class that understands the difference between an expense and an investment. They require a financial system willing to fund thirty-year bets, not just thirty-month ones. And they require something more subtle: a culture that values engineering excellence not as a means to an end but as a discipline worth pursuing for its own sake. The American model celebrates the entrepreneur — the founder, the disruptor, the visionary. The European model, at its best, celebrates the engineer — the person who makes things work, who solves problems that are genuinely hard, who builds systems that endure. Both models produce extraordinary outcomes. But they produce different kinds of outcomes, and the European kind is systematically undervalued by the narratives that dominate global business discourse.

Europe's track record on these requirements is mixed. The European Union's Horizon Europe research programme allocates roughly €95 billion over seven years — substantial by any measure, but spread across twenty-seven member states, dozens of priority areas, and thousands of competing proposals. The European Chips Act, announced in 2022, commits €43 billion in public and private investment to semiconductor manufacturing on European soil — a significant step, but one whose impact will take a decade or more to fully materialise. National programmes like France's France 2030 investment plan and Germany's Zukunftsfonds represent genuine commitments to industrial technology, but their scale remains modest compared to the subsidies and strategic investments deployed by the United States through the CHIPS Act and the Inflation Reduction Act, or by China through its Made in China 2025 programme and its National Integrated Circuit Industry Investment Fund.

The talent pipeline is perhaps the most critical variable. Every company profiled in this series depends on a supply of highly trained engineers, physicists, mathematicians, and computer scientists. Europe's universities produce them in significant numbers — ETH Zurich, TU Delft, Imperial College, École Polytechnique, TU Munich, and dozens of others rank among the best engineering schools in the world. But Europe loses a disproportionate share of its top technical talent to American companies and American salaries. The engineers who could be building the next ASML or the next ARM are, in many cases, optimising advertising algorithms at Google or building recommendation systems at Meta. This is not a failing of the engineers. It is a failing of the ecosystem that should be giving them reasons to stay.

The Invisible Continent

There is a paradox at the heart of this series. The companies and systems profiled here are, by any objective measure, among the most consequential technology enterprises in the world. ASML's machines are the bottleneck of the entire semiconductor supply chain. ARM's architecture is in more devices than any other processor design in history. SAP's software processes more commercial transactions than any other enterprise platform on earth. CERN's World Wide Web restructured human civilisation. And yet, in the popular imagination, Europe is not a technology continent. It is a regulatory continent. A consumer-protection continent. A continent of beautiful cities, excellent food, and strict data privacy laws.

This perception gap is not harmless. It affects investment decisions, talent flows, policy priorities, and the self-image of European engineers and founders. If the story of global technology is told as an exclusively American story, then European entrepreneurs who could build the next infrastructure-layer company may instead move to California, start a consumer app, and chase a narrative that was written for someone else. The perception becomes self-fulfilling: Europe does not build technology, therefore ambitious Europeans leave, therefore Europe does not build technology.

The numbers quantify the perception gap. European venture capital investment in 2024 totalled approximately €52 billion — a significant figure, but less than one-third of the roughly $170 billion invested in American startups over the same period. The disparity is not just in volume but in ambition: European funds tend to invest smaller amounts, at earlier stages, with shorter time horizons. The result is that European companies with genuine infrastructure-layer potential — the kind of companies that need decades of patient capital, not five-year exit timelines — are often starved of the funding they need to reach scale. Or they relocate to the United States, where the capital markets understand and reward their ambition.

Spotify's journey illustrates the dynamic perfectly. Daniel Ek built the company in Stockholm, developed the technology with Swedish engineers, and grew it within the European market. But when Spotify went public in 2018, it listed on the New York Stock Exchange through a direct listing — bypassing European capital markets entirely. The message was not subtle: a European company, built with European talent, turned to American financial infrastructure to unlock its full value. The engineers were European. The capital was American. The pattern repeats across the continent.

Breaking this cycle requires, among other things, telling the true story. Not a story of European supremacy — such stories are always false and usually dangerous. Not a story of American decline — that is equally misleading. But a story of European capability that is specific, evidence-based, and honest about both strengths and weaknesses. A story that acknowledges that Europe builds things the world cannot function without, and that the question is not whether Europe can compete but whether it chooses to.

It also requires institutional imagination. The European Investment Fund, the European Innovation Council, and national development banks like Bpifrance and KfW have begun to develop instruments aimed at long-horizon technology investment. But these instruments must be matched by regulatory environments that allow companies to scale across the single market without navigating twenty-seven different frameworks for data, labour, intellectual property, and corporate governance. The single market, for all its achievements, remains fragmented in precisely the areas that matter most for technology companies seeking continental scale.

Europe does not need to become Silicon Valley. It needs to become a better version of itself — a continent that recognises what it already builds, invests in the ecosystems that build it, and gives its engineers a reason to stay.

Series conclusion

A Handshake

This was Series 6 — Made in Europe. Eight episodes on the companies, products, and systems that prove European technology is not a historical footnote but a present-tense reality. From the lithography machines of Veldhoven to the particle beams of Geneva, from the chip designs of Cambridge to the enterprise systems of Walldorf, each episode documented something the world depends on that was built on European soil, by European engineers, within European institutions.

We are VastBlue Innovations, based in Madeira, building AI systems for the industries this series explored. That sentence is the only advertisement you will find in nine episodes and roughly thirty thousand words of editorial. If you have read this far, you have earned the right to know who wrote it — and we have, perhaps, earned the right to tell you.

The editorial programme that produced this series is built on a simple conviction: that the best way to demonstrate competence is to demonstrate understanding. Before we ask anyone to trust our technology, we want them to trust our thinking. These episodes — researched, written, and published without sponsor influence, without advertiser pressure, and without the kind of brand-safe corporate blandness that makes most company-adjacent content unreadable — are our way of showing that we understand the industries we serve. Not as market segments. As living systems with histories, constraints, and possibilities that deserve serious attention.

Every episode in this series required weeks of research. Patent filings, annual reports, technical specifications, academic papers, industry analyses, historical records. We read them so you would not have to, and then we wrote something that we hoped would be worth your time. Not a corporate blog post dressed up as journalism. Not a listicle with a clickbait headline. A genuine attempt to understand, and to explain, why the things Europe builds matter — and what happens if we stop building them.

Next month, we begin Series 7 — The European Engineer. Where this series profiled companies and systems, the next one profiles individuals. The engineers whose technical contributions are shaping Europe's industrial and digital future — not as executives or entrepreneurs, but as engineers. The people who solve the problems that make the products possible. Their stories are rarely told. We intend to tell them.

Thank you for reading Made in Europe. If any of these episodes changed the way you think about where technology comes from, or who builds the things the world cannot function without, then the series has done its job. The world depends on what Europe builds. The question — the only question that matters — is whether Europe knows it.

Sources

1. European Commission, "Horizon Europe Strategic Plan 2025-2027" — https://research-and-innovation.ec.europa.eu/funding/funding-opportunities/funding-programmes-and-open-calls/horizon-europe/strategic-plan_en
2. European Commission, "European Chips Act" — Regulation (EU) 2023/1781 — https://digital-strategy.ec.europa.eu/en/policies/european-chips-act
3. ASML Annual Report 2024 — https://www.asml.com/en/investors/annual-report
4. Semiconductor Industry Association, "2024 State of the U.S. Semiconductor Industry" — https://www.semiconductors.org/resources/sia-annual-report/
5. European Investment Bank, "Digitalisation in Europe 2023-2024: Evidence from the EIB Investment Survey" — https://www.eib.org/en/publications/digitalisation-in-europe-2023-2024
6. France 2030 Investment Plan — Official Government Portal — https://www.gouvernement.fr/france-2030
7. QS World University Rankings 2025 — Engineering and Technology — https://www.topuniversities.com/university-rankings/university-subject-rankings/engineering-technology
8. ARM Holdings Annual Report 2024 — https://www.arm.com/company/investors
9. SAP SE, "SAP by the Numbers" — Corporate Fact Sheet 2024 — https://www.sap.com/about/company.html
10. Invest Europe, "European Private Equity Activity 2024" — https://www.investeurope.eu/research/activity-data/