The most expensive machine in chipmaking costs $350 million, and there's basically one company on Earth that makes it. ASML has held a near-monopoly on extreme ultraviolet (EUV) lithography for years, the technology that etches the tiniest features onto the silicon wafers powering everything from your phone to the AI models reshaping entire industries. Nobody's seriously challenged that dominance. Until, possibly, now.

Lace Lithography, a Bergen-based startup founded by a University of Bergen physicist, just closed a $40 million Series A to develop something it calls BEUV, or Beyond-EUV, lithography. Instead of using light to draw circuits on chips, Lace fires helium atom beams. The beam is 0.1 nanometers wide. That's about the width of a single hydrogen atom, and it's 135 times finer than what ASML's best EUV systems can manage.

If the technology works at manufacturing scale, and that's still a significant if, it could enable chip features ten times smaller than today's state of the art. The kind of jump that doesn't just extend Moore's Law. It rewrites the playbook entirely.

Atomico led the Series A, joined by M12 (Microsoft's venture fund), Linse Capital, SETT (Spain's Society for Technological Transformation), and Nysno, Norway's state-backed climate investment company. Existing backers Vsquared Ventures, Future Ventures, and Runa Capital also participated. Lace has now raised over $60 million in total.

The investor mix tells you something about where this technology sits. You've got Atomico, one of Europe's heavyweight deeptech VCs, alongside Microsoft's corporate venture arm. That's not a casual bet. M12 doesn't typically chase hardware startups unless there's a clear connection to the compute infrastructure Microsoft needs for Azure and its AI ambitions.

Nysno's presence is interesting too. The Norwegian state climate fund invests where it sees long-term sustainability angles. Smaller, more efficient chips mean less energy consumption in data centers, a connection that's only going to matter more as AI workloads scale.

Total funding now sits above $60 million. For a company founded barely two years ago and already running 60-plus employees across offices in Bergen, Barcelona, the UK, and the Netherlands, the trajectory is steep. Lace reported revenues of around NOK 20 million in 2024, primarily from research contracts.

Here's the core problem. Light has physical limits. EUV lithography uses wavelengths of 13.5 nanometers. You can push the optics, add tricks, squeeze a bit more resolution out of each generation. But at some point, you're fighting physics. The wavelength itself becomes the bottleneck.

Lace's approach sidesteps this entirely. Helium atoms are matter, not electromagnetic radiation. A focused beam of them can be steered with far greater precision than photons. John Petersen, scientific director of lithography at the Belgian research institute Imec, told Silicon Republic that the potential to create features at this scale is 'almost unimaginable' compared to current methods.

The catch? Nobody's done this at manufacturing scale. Lab demonstrations and production tools are very different things. Lace is targeting a test tool in a pilot fabrication facility by roughly 2029. That timeline puts them years away from commercial deployment, and semiconductor manufacturing has a long history of promising breakthroughs that never survived the jump from prototype to production line.

Bodil Holst isn't your typical startup CEO. She's a Danish-Norwegian physicist who joined the University of Bergen in 2007 and spent nearly two decades building her research career around nanoscale imaging, molecular-beam lithography, and 2D materials. She still holds an affiliated professorship there while running Lace.

Her co-founder and CTO, Adria Salvador Palau, was Holst's former PhD student. The technology they're commercializing grew directly out of academic research at Bergen. It's a pattern you see more often in European deeptech lately: university spinouts taking on problems that require serious scientific credibility, not just engineering speed.

Holst presented research findings at a scientific lithography summit in February 2026, the kind of venue where credibility matters more than pitch decks. The fact that she can hold her own in both worlds, academic rigor and venture-backed ambition, is part of what makes this company unusual.

ASML's market capitalization hovers around 460 billion euros. Its machines take years to build, cost hundreds of millions each, and there's currently no credible alternative for cutting-edge chip production. That's a single point of failure for the entire global technology supply chain.

Governments have noticed. The EU, the US, China, Japan, they're all pouring billions into semiconductor self-sufficiency. But most of that money funds fabrication capacity, not the fundamental lithography tools those fabs depend on. If atom-based lithography proves viable, it wouldn't just extend Moore's Law. It would diversify the supply chain for the most critical technology in computing.

Lace won't replace ASML next year. Or probably the year after that. The company's own timeline suggests a pilot tool by 2029, and the gap between a pilot and mass production is measured in years and billions of dollars. But the investors writing these checks aren't optimizing for next quarter. They're betting that the semiconductor industry's dependence on a single lithography approach is a vulnerability, and that the physics behind Lace's technology is strong enough to build a real alternative.

For Bergen, a city better known for its rain and its fish market than its chip startups, Lace represents something genuinely new. Norwegian deeptech has arrived, and it's challenging one of the most entrenched monopolies in technology. The $40 million bet is just the start.