The Dutch town of Veldhoven is an unlikely epicenter of geopolitical warfare. Here, in a sprawling campus of glass and steel, ASML builds machines that print the circuitry of the 21st century. Each extreme ultraviolet lithography tool costs more than a Boeing 787 and takes eighteen months to assemble. Without them, you can't make the world's most advanced chips. And without those chips, you don't get AI, 5G, or hypersonic missiles.
China wants those machines. Badly. But the United States has made sure they can't buy them. Since 2019, Washington has leaned on the Netherlands to block exports of ASML's crown jewels. The result: a $10 billion Chinese crash program to build its own EUV lithography system. It's the industrial equivalent of a moon shot — and it's either the smartest bet or the biggest boondoggle of the decade.
The Monster in the Clean Room
To understand why this is so hard, you need to understand what ASML's machines actually do. They fire a laser at tiny droplets of tin to create plasma that emits 13.5-nanometer light — a wavelength so short it's absorbed by air. The whole process happens in a vacuum chamber the size of a bus. The mirrors that guide the beam are so smooth that if you scaled them to the size of Germany, the biggest imperfection would be a millimeter.
ASML has a monopoly on EUV lithography — 100% market share. It took them thirty years and billions in R&D to build the first prototype. The company's supply chain is a global spiderweb: German optics, U.S. lasers, Japanese photoresists. China doesn't have any of that at the required precision.
“Building an EUV tool from scratch is like building a Ferrari without any of the suppliers,” says a former ASML engineer who spoke on condition of anonymity. “You'd have to reinvent the entire ecosystem.”
Plan B: DUV and the Art of the Workaround
China isn't starting from zero. Its leading chipmaker, SMIC, already produces 7-nanometer chips using older deep ultraviolet (DUV) lithography — a stopgap that requires multiple patterning steps, making it slower and more expensive. But DUV machines aren't under a total export ban, so China has stockpiled them. The question is whether they can push DUV to its limits while chasing the EUV holy grail.
There's also a wildcard: nanoimprint lithography. Canon, ASML's smaller Japanese rival, has been quietly developing a stamping technique that could bypass EUV entirely. If China acquires or copies that tech, they might leapfrog the EUV bottleneck. But nanoimprint is unproven at scale — and Canon isn't selling.
The $10 Billion Question
China has reportedly poured $10 billion into a national project to develop indigenous lithography tools. That's roughly what ASML spent over three decades. But money isn't the only missing piece. The talent pool is shallow. The supply chain is fractured. And the U.S. keeps tightening the screws — most recently by pressuring Japan and the Netherlands to restrict maintenance and spare parts for existing machines.
Yet China has something ASML never had: a command economy that can ignore market forces. State-owned enterprises can absorb losses indefinitely. Scientists can be ordered to work on specific problems. And the military's appetite for homegrown chips provides unending motivation. If any country can brute-force its way into EUV, it's China.
What Happens If They Succeed?
If China cracks EUV lithography within five years — a big if — the global chip industry gets a second source, breaking ASML's monopoly. Prices for advanced chips could drop. Export controls become meaningless. The U.S.-led tech blockade collapses. And China becomes the world's chip superpower, just as it dominates solar panels and electric vehicles.
If they fail, they've wasted billions and fallen further behind. Taiwan's TSMC and South Korea's Samsung will keep pushing to 2 nanometers and beyond, leaving China's semiconductor industry stuck in the past. The military will have to make do with older chips, limiting the performance of everything from drones to AI systems.
The Real Story Isn't the Machine
But the deeper narrative here isn't about lithography. It's about the limits of economic coercion. The U.S. tried to strangle China's tech sector, and China responded by doubling down on self-reliance. That's the pattern: sanctions force innovation, but only if the target has the resources and will to endure a decade of pain. China has both. The question is whether they have the patience.
I've covered enough industrial policy to know that government-led tech projects usually disappoint. The Soviet Union never built a decent computer. Japan's Fifth Generation project fizzled. But China's track record is different. They built the world's largest high-speed rail network from scratch. They dominate solar manufacturing. They're building a domestic semiconductor ecosystem, however imperfect.
This isn't a story about a machine. It's a story about a country that refuses to accept technological dependence. Whether they succeed or fail, the attempt itself changes the world. Because the moment China even looks close to building its own EUV tool, the entire export control regime that the U.S. has built unravels. Allies will start hedging. Companies will start hedging. And the race to contain China's tech ambitions will be over.
The Verdict
Can China build its own ASML? Maybe. But the question that keeps me up at night is different: What happens when they do? The answer is that the world gets a new order. And the old one — the one where a single Dutch company controls the world's most critical manufacturing technology — will look like a historical accident. Because that's what it was.
