EU quantum strategy exposes familiar funding and fragmentation gaps

The European Commission unveiled its long-awaited quantum technology strategy on Wednesday, framing the emerging field as a fresh chance for economic success after the continent largely missed the artificial intelligence boom. Yet the document reads less like a launchpad and more like a diagnosis of the same structural ailments that have hobbled European tech ambitions for decades: fragmented capital markets, a reluctance to concentrate public money on a few winners, and a regulatory instinct that industry leaders say risks killing the sector before it reaches maturity.

The numbers are stark. Europe produces the largest volume of scientific publications on quantum technology worldwide, but it captures only five percent of global private quantum funding. The United States commands over 50 percent and China roughly 40 percent, according to the Commission's own analysis. In patents, the standard proxy for commercialisation intent, Europe ranks third behind the two superpowers. The pattern is familiar: European universities and research institutes excel at the science, but the companies that turn that science into scalable products are born, funded and listed elsewhere.

The funding chasm

Henna Virkkunen, the European Commissioner for Tech Sovereignty, Security and Democracy, told reporters on Tuesday that Brussels and national capitals have jointly committed €11 billion to quantum technology. That figure sounds substantial until it is set against the scale of the challenge. Enrique Lizaso, chief executive of the Spanish quantum software company Multiverse Computing, put it bluntly: raising a scale-up in Europe is "super difficult" because the continent lacks European venture capital instruments large enough to support growth-stage companies. He argued that matching US levels would require €100 million per company, a ticket size that barely exists in the European ecosystem.

Multiverse's own experience illustrates the point. The company raised €189 million in a funding round last month, but the investor syndicate included US-based funds alongside European ones. Without that transatlantic capital, the round would likely have fallen short. Juha Vartiainen, co-founder of the Finnish quantum hardware maker IQM Quantum Computers, echoed the sentiment: "we would need to have funding levels which are significantly larger than they have been so far." Both executives spoke before the strategy's formal adoption, but their assessment aligns with the Commission's own finding that efforts to create a bloc-wide capital markets union have "yielded no significant outcomes."

Research strength, commercial weakness

Europe's lead in academic output is real and hard-won. The continent's universities and research organisations have sustained deep expertise in quantum physics, materials science and cryogenic engineering for decades. Vartiainen noted that Europe is "several years ahead of other countries" in the underlying science. But the transition from laboratory to market is where the system fails. The US model, exemplified by the Defence Advanced Research Projects Agency (DARPA), selects a cohort of companies, sets a sharp technical target, and backs them with milestone-based funding that can reach $300 million per participant. Eighteen companies are currently in a DARPA programme aiming to deliver an error-free quantum computer by 2033.

By contrast, the Commission's strategy promises "two grand challenges" between 2025 and 2027, one on quantum computing and another on quantum navigation systems for "critical environments." The language is deliberately vague on budget. Vartiainen argued that Europe's instinct to be "technology-neutral" and fund multiple strands, superconducting qubits, trapped ions, photonics, neutral atoms, dilutes the impact. "Europe should follow the US example of unlocking larger investments for focused challenges," he said. The Commission's draft does not rule out a more concentrated approach, but it also does not commit to one.

Security classification and export controls

Quantum computing sits at the intersection of commercial opportunity and national security. A sufficiently powerful quantum computer would break the public-key encryption that secures global communications, financial transactions and state secrets. That reality has already prompted several European governments to impose export restrictions on quantum hardware and related technologies. The strategy acknowledges the sensitivity but offers no unified European framework, leaving a patchwork of national rules that companies say complicates collaboration and deters investors.

The US has taken a more centralised approach, using export controls and entity lists to manage the diffusion of quantum capabilities while funnelling resources into a domestic industrial base. China, meanwhile, treats quantum as a strategic priority within its military-civil fusion doctrine, directing state capital into a handful of national champions. Europe's fragmented governance, 27 member states with distinct security doctrines and export licensing regimes, makes a coherent response harder to achieve.

The capital markets union that never arrived

The strategy's diagnosis of Europe's financial plumbing is unsparing. Decades of effort to integrate national capital markets have produced a single rulebook for prospectuses and a handful of harmonised insolvency rules, but the deep pools of pension and insurance capital that fund US growth rounds remain largely national, risk-averse and inaccessible to a Finnish hardware startup or a Spanish software scale-up. The European Investment Bank and the European Innovation Council have stepped in with public funds, but industry voices describe these as "insufficient and lack focus."

Virkkunen acknowledged the fragmentation: "Now it's important, because we are quite fragmented, that we are putting different dots together." The strategy promises to "support innovation-oriented procurement schemes", essentially, making governments the first buyers of quantum technologies to de-risk early adoption. But the text offers no detail on how such procurement would be coordinated across borders, or what budget would back it. Without a mechanism to aggregate demand at European scale, national procurement risks replicating the fragmentation it is meant to solve.

Regulation before maturation

The industry's loudest warning concerns regulation. DigitalEurope, the Brussels-based trade association representing large tech companies and national digital federations, drew a direct parallel with the AI Act. "We cannot afford to regulate what is not yet mature," said its director general, Cecilia Bonefeld-Dahl. "Otherwise, Europe risks losing the quantum race." The AI Act, finalised in 2024 after years of negotiation, was the world's first comprehensive horizontal regulation of artificial intelligence. Within months of its adoption, the Commission began signalling a shift toward "innovation-friendly" implementation, responding to criticism that the law would entrench US dominance by burdening European developers with compliance costs their American rivals do not face.

Quantum technology is at a far earlier stage. No company has yet demonstrated a fault-tolerant, scalable quantum computer that outperforms classical machines on a commercially useful task. IBM, the sector's most visible incumbent, has publicly targeted 2029 for its first "workable" quantum computer. Regulating a technology that does not yet exist in deployable form strikes many executives as a category error. The strategy itself is silent on new regulatory proposals, but the Commission's track record on digital legislation suggests the impulse will be hard to resist.

Procurement as industrial policy

One lever the Commission could pull without new legislation is public procurement. European governments collectively spend roughly 14 percent of GDP on goods and services. Directing a fraction of that toward quantum-enabled communications, sensing and computing would create early revenue for European firms and signal long-term demand to private investors. The US has used this model effectively: defence and intelligence agencies act as anchor customers for emerging technologies, from semiconductors to satellite imagery, giving domestic companies a revenue base before they face global competition.

The strategy's reference to "innovation-oriented procurement schemes" is the only concrete nod to this tool. But procurement competence sits at national and sub-national level. The Commission can issue guidance, fund pilot projects and condition certain EU grants on procurement commitments, but it cannot compel a German state government or a French hospital system to buy European quantum sensors. The gap between Brussels' ambition and the reality of dispersed purchasing authority is another instance of the "dots" Virkkunen wants to connect.

Timeline and credibility

The strategy sets a loose timeline: two grand challenges launched by 2027, with the broader goal of deploying "reliable technology widely adopted by several industries" at an unspecified date. IBM's 2029 target for a workable machine and DARPA's 2033 deadline for error-free operation provide external benchmarks. If Europe's first challenge calls close in 2027 with modest funding and no clear path to the next stage, the gap with US and Chinese programmes will widen. The Commission's credibility on tech industrial policy rests on whether this strategy becomes a living instrument, updated, funded and politically defended, or joins the shelf of forgotten communications.