Imagine a world where the most advanced computer chips – the brains behind everything from smartphones to military systems – are produced by just one country. That’s the reality China is trying to change, but a new analysis from top Chinese physicists reveals just how far they have to go. In a sobering assessment published in the Chinese Science & Technology Review, industry leaders including Wang Yangyuan, co-founder of China’s largest chipmaker SMIC, describe their domestic semiconductor industry as “small, scattered, and weak.” Their solution? Create a “Chinese ASML” to break dependence on Western technology. But can they actually do it?
The Reality Gap in China’s Chip Dreams
The numbers tell a stark story. While China aims to establish stable 14-nanometer production and begin trial operations for fully domestic 7-nanometer production lines by 2030, the global leader TSMC plans to manufacture chips with A14 technology (formerly called 1.4 nm) by late 2028. That’s four entire generations ahead of where China hopes to be. “The industry does not expect to close the gap with foreign competition by 2030,” the analysis admits, calling for Chinese companies to “abandon illusions” about their current capabilities.
Currently, Chinese companies like SMIC and Huawei can only produce 7-nanometer class chips using lithography systems from Dutch market leader ASML – and even those are older models due to export restrictions. The yield (percentage of functional chips) is reportedly particularly low, making production viable only with heavy subsidies. For context, ASML’s extreme ultraviolet (EUV) lithography systems, which all non-Chinese chip manufacturers use for 5-nanometer generation chips and beyond, have never been sold to Chinese companies due to export bans.
The Integration Challenge: More Than Just Parts
Here’s where the real challenge lies. While Chinese researchers believe they’ve made breakthroughs in EUV light sources and necessary optical systems, integrating these into a complete lithography system remains a major hurdle. The analysis emphasizes that ASML relies on over 5,000 suppliers, with each EUV system consisting of more than 100,000 individual components. ASML itself is described as “merely an integrator” of these parts – a deceptively simple description for one of the most complex manufacturing processes on Earth.
China reportedly already has a functioning prototype of an EUV lithography system, but according to reports, it consists largely of parts sourced from ASML’s EUV models. This highlights the fundamental problem: creating individual components is one thing, but integrating them into a reliable, high-yield production system requires expertise that takes decades to develop.
The Global Context: Export Controls and AI Wars
China’s semiconductor ambitions don’t exist in a vacuum. According to a TechCrunch report, the Trump administration is drafting sweeping new export controls that would require U.S. government approval to ship AI chips outside the country. These rules would give the Department of Commerce significant control over companies like AMD and Nvidia, requiring approval for purchases by foreign companies and governments. This represents a significant shift from the Biden administration’s AI Diffusion rule, which Trump rescinded last year.
Meanwhile, tensions between AI companies and governments are escalating. Anthropic, the AI lab behind Claude, plans to challenge the U.S. Department of Defense’s designation of the company as a supply chain risk in court, according to both TechCrunch and Financial Times reports. The designation, which can bar Anthropic from working with the Pentagon and its contractors, followed a dispute over military access to AI systems. Anthropic CEO Dario Amodei stated the company’s AI should not be used for mass surveillance of Americans or fully autonomous weapons, while the Pentagon sought unrestricted access for all lawful purposes.
“We do not believe this action is legally sound and we see no choice but to challenge it in court,” Amodei told the Financial Times. A senior Pentagon official responded anonymously: “The military will not allow a vendor to insert itself into the chain of command by restricting the lawful use of a critical capability and put our warfighters at risk.”
The Economic Ripple Effects
The semiconductor race has broader economic implications. Market research firm Gartner predicts that AI-driven memory shortages will significantly impact the PC and smartphone markets in 2026, causing device prices to rise, sales to decline, and entry-level models to disappear. The shortage, driven by hyperscalers’ demand for AI data centers, is expected to increase memory costs dramatically, with DRAM and SSD prices potentially rising up to 130% by late 2026.
“It’s the strongest decline in device shipments in over ten years,” said Ranjit Atwal, Senior Director Analyst at Gartner. “Higher prices will noticeably limit the selection of available devices and prompt many buyers to use their existing devices longer. This will permanently change previous upgrade cycles.”
The Path Forward: Teamwork Over Fragmentation
Back in China, the analysis calls for fundamental changes in how the semiconductor industry operates. The authors recommend mergers and acquisitions among semiconductor companies to reduce fragmentation and pool resources. “Everyone fights for themselves” should transform into “team combat,” they argue. Better integrated electronic design automation (EDA) tools and a new public platform with modern process technology should help, along with mechanisms and incentives that promote fault tolerance, testing, and verification throughout the entire value chain.
The question remains: Can China’s semiconductor industry transform from its current state of being “small, scattered, and weak” into a cohesive force capable of challenging Western dominance? The 2026-2030 five-year plan will be crucial, but as the analysis makes clear, success will require more than just technological breakthroughs – it will require a complete overhaul of how China’s chip industry operates, collaborates, and innovates. In the high-stakes game of semiconductor manufacturing, having the right parts is only half the battle; knowing how to put them together is what separates leaders from followers.