Domain: Geopolitical Technology Policy and Advanced Semiconductor Manufacturing.
Adopted Persona: Top-Tier Senior Analyst specializing in Sino-American technological competition and critical supply chain resilience.
Target Review Audience: National Security and Industrial Policy Strategists.
Abstract
This report details the emergence of a highly secret, state-backed Chinese initiative—internally likened to the Manhattan Project—to achieve self-sufficiency in Extreme Ultraviolet (EUV) lithography, the technology critical for manufacturing advanced AI and defense-related semiconductors. A prototype EUV machine, reverse-engineered by former ASML engineers and centrally coordinated by Huawei, was completed and became operational in Shenzhen in early 2025. While the machine successfully generates EUV light, it has not yet produced working chips. This development places China potentially years ahead of Western intelligence estimates regarding technological parity. Internal government targets aim for functional chip production by 2028, though a more realistic internal assessment places the milestone at 2030, significantly sooner than the decade expected by external analysts. Key challenges remain in replicating Western-monopolized precision optical systems (e.g., Carl Zeiss components), but the project leverages aggressive talent recruitment, the use of aliases for operational secrecy, and the salvaging of secondhand Western equipment to bypass export controls.
China’s EUV Lithography Breakthrough: Strategic Implications and Technical Status
Project Genesis and Leadership: The EUV project is the culmination of a six-year government initiative driven by President Xi Jinping’s semiconductor self-sufficiency goals. The secret project is classified under national security and falls under the oversight of the Communist Party’s Central Science and Technology Commission, headed by Ding Xuexiang.
0:00 Operational Prototype (2025): Chinese scientists in a high-security Shenzhen laboratory completed a prototype EUV lithography machine in early 2025. The machine, which fills nearly an entire factory floor, is operational and successfully generating extreme ultraviolet light, though it has not yet produced working chips.
Reverse-Engineering Strategy: The prototype was built by former engineers from the Dutch firm ASML who reverse-engineered the company’s EUV systems. The team was recruited aggressively, often working under false names (aliases) to maintain operational secrecy within the secure facility.
Huawei’s Central Role: Chinese electronics giant Huawei is key to the effort, coordinating a network of companies and state research institutes across the entire supply chain, including chip design, fabrication equipment, and final product integration.
Accelerated Timeline: The government-set goal is to produce working chips on the prototype by 2028. However, individuals close to the project suggest 2030 is a more realistic target. Both timelines are years earlier than the decade analysts previously predicted for Chinese parity.
Technical Challenges (Optics): The primary technical hurdle involves replicating precision optical systems, such as those supplied by Germany’s Carl Zeiss, which are essential for focusing the EUV light generated by firing lasers at molten tin 50,000 times per second.
Procurement Methods: China is circumventing export restrictions by salvaging components from older ASML and DUV machines and sourcing restricted parts (e.g., from Nikon and Canon) through secondhand markets and international auctions (such as listings on Alibaba Auction).
Talent Acquisition: Recruitment includes recently retired, Chinese-born former ASML engineers and scientists. Bonuses up to 5 million yuan ($700,000) and home-purchase subsidies are offered. The team includes prominent figures like Lin Nan, ASML’s former head of light source technology, now filing EUV light source patents in Shanghai.
Internal Security Measures: To protect confidentiality, Huawei teams are isolated from one another, and employees often sleep on site, with phone access restricted for sensitive tasks. A team of approximately 100 recent university graduates is focused on reverse-engineering components, with individual desks filmed to document the disassembly and reassembly efforts.
Geopolitical Context: This initiative is a direct response to US export controls, initiated in 2018 and expanded in 2022, aimed at cutting off China’s access to advanced semiconductor manufacturing technology. China’s explicit aim is to become 100% independent of the U.S. in its supply chains.