Китай активировал субнанометровый EUV-лазер: почему ASML не может его остановить

In July 2026, Huawei activated a domestically built EUV light source using a method ASML has never used — laser-induced discharge plasma, reaching temperatures of 220,000°C to generate the exact 13.5nm wavelength needed for advanced chipmaking. Headlines are calling it a sub-nanometer breakthrough that ASML can't block. In this video, Iron Circuit breaks down what "sub-nanometer precision" actually refers to, why it has nothing to do with the laser itself, and why this activation event — real and independently reported — still hasn't closed the exact gap that phrase implies. We go deep into how EUV light actually gets generated and why it needs mirrors polished to atomic-level smoothness, what Huawei's LDP method actually achieved versus ASML's laser-produced plasma approach, why "ASML can't block it" misunderstands what export controls were built to do, China's real mirror reflectivity numbers against Zeiss's own benchmark, and the honest timeline separating this milestone from an actual working chip. This isn't hype and it isn't dismissal. It's the full, honest breakdown: what's confirmed, what's still an acknowledged multi-year gap, and what to watch next in China's EUV effort. 🔔 Subscribe to Iron Circuit for weekly deep dives into the chip war, semiconductor technology, and the engineering battles reshaping global power — before they become mainstream news. Topics covered in this video: Huawei EUV light source activation explained Laser-induced discharge plasma vs laser-produced plasma What sub-nanometer precision actually means China vs ASML EUV lithography race Zeiss mirror technology explained China semiconductor independence 2026 EUV lithography physics explained #Huawei #ASML #China #SemiconductorWar #ChipWar #IronCircuit Iron Circuit covers the technology, companies, and decisions shaping the global chip race — one story at a time.