Google just launched the Pixel 11 series. The Tensor G6 inside it carries real upgrades. Yet one detail stands out. It’s not the 2nm chip many expected.
Instead, the company stuck with an enhanced 3nm process from TSMC. The choice surprised analysts who had tracked months of rumors pointing to a bigger leap. Process node decisions rarely grab headlines. This one does. It reveals much about Google’s priorities in a market where raw silicon geometry often signals ambition.
Peng Yu-chun, Google’s vice president of hardware, confirmed the details in an interview. The Central News Agency published his remarks. Tensor G6 uses TSMC’s 3nm technology, a newer variant than the one in last year’s Tensor G5. Android Authority first highlighted the shift after reviewing the translated comments. Google had stayed quiet on exact manufacturing specs until then.
The news landed just as the Pixel 11 family reached stores. All models, from the base Pixel 11 to the Pro XL, run the same Tensor G6. Google claims 25% faster web browsing and 15% quicker app launches thanks to CPU improvements. The on-device TPU now packs 50% more compute. Those numbers target everyday AI tasks. They don’t chase benchmark glory.
But here’s the context. Earlier reports painted a different picture. Multiple outlets, including Wccftech in June 2025, said Google would skip straight to TSMC’s 2nm node for the G6. That would have positioned the Pixel 11 ahead of rivals. Apple reportedly eyes 2nm for its iPhone 18 Pro. Qualcomm and Samsung have their own plans. A 2nm Tensor chip might have delivered bragging rights along with efficiency gains.
Reality proved more measured. The Tensor G5 had already moved to TSMC’s 3nm after years of Samsung manufacturing that drew criticism for thermal and efficiency shortfalls. Switching foundries helped. Yet the G6 builds on that foundation rather than vaulting forward. 9to5Google noted the correction hours after launch. Peng’s statement left little room for doubt. The chip uses 3nm. A newer flavor, yes. Still 3nm.
Benchmarks leaked ahead of the event tell part of the story. The Pixel 11 Pro XL scored noticeably behind the Galaxy S26 Ultra in early Geekbench runs. Tom’s Guide reported the Tensor G6 ran nearly 50% slower in some tests. Such gaps have followed Tensor chips since the first Pixel 6 model. Google tunes these processors for machine learning and camera work. Peak CPU performance takes a back seat. The strategy hasn’t changed.
So why stop at refined 3nm? Cost offers one clue. TSMC’s 2nm wafers carry premium pricing. Early production yields can disappoint. Google ships tens of millions of Pixels each year but lacks the volume of Apple or Samsung. An aggressive node jump might have strained supply or budgets. The company also emphasizes software smarts over hardware one-upmanship. Gemini Nano runs locally on the G6’s boosted TPU. That feature matters more to Google than topping a chart.
Industry watchers had watched the shift from Samsung to TSMC with interest. The Tensor G5 marked the first full step. Documents reviewed by Android Authority in late 2024 showed the G6 would land on TSMC’s N3P node. That’s the same process expected for Apple’s A19. N3P brings modest gains in power, performance and density over the N3E used in the G5. Those improvements appear in the claimed speed boosts for browsing and apps. But they fall short of the 15-20% efficiency jump a true 2nm node might deliver.
The decision carries implications beyond one product cycle. Pixel phones now enjoy seven years of updates. That promise rests on efficient silicon that ages gracefully. A more advanced node could have eased thermal limits and extended battery life further. Instead, Google pairs the G6 with larger batteries in Pro models and smarter power management in Android 17. The results look solid in early reviews. They don’t rewrite the flagship pecking order.
Competitors wasted little time filling the gap. Samsung’s latest Exynos reached 2nm first among phone chips. The move gave its Galaxy devices an edge in some efficiency metrics. MediaTek and others press TSMC for capacity on leading nodes. Google, by contrast, appears content to iterate. Its hardware chief focused on real-world gains during the interview. Translation nuances created brief confusion, but the message came through. The Tensor G6 prioritizes AI acceleration and stability over node bragging.
Recent coverage adds color. TweakTown detailed the Pixel 11 launch and noted the G6’s 50% TPU uplift for Gemini tasks. The site avoided deep manufacturing analysis yet captured Google’s focus on on-device intelligence. PhoneArena, in a July piece, had predicted continued struggles for Tensor despite process upgrades. Its analysis held up. Five years after the first Tensor promised a Pixel renaissance, performance gaps linger against Apple and top Android rivals.
Still, the picture isn’t entirely bleak. Tensor chips excel at photography and certain AI features. The G6 builds on that with faster Night Sight and new Pro Zoom capabilities up to 120x. HiLight RGB notifications and brighter Super Actua displays round out the package. These elements reflect Google’s product philosophy. Hardware serves experience. Specs serve users. A 2nm node might have looked impressive on paper. It wouldn’t automatically fix every shortcoming.
Supply chain realities likely played a role too. TSMC allocates its most advanced capacity carefully. Apple typically locks in first dibs. Google secured a multi-year deal with the foundry, yet that agreement may emphasize volume and price over bleeding-edge access. Jumping to 2nm for one generation carried risk. Refining 3nm production offers predictability. For a company that once struggled with Samsung’s yields, predictability holds appeal.
Analysts expect the Pixel 12 to finally adopt 2nm. By then, the node should reach better maturity. Costs may drop. Yields will improve. Google can adopt it without the pioneering headaches. In the meantime, the Tensor G6 gives the Pixel 11 a respectable step forward. Web pages load quicker. Apps open faster. Local AI feels more responsive. Battery life benefits from the process tweaks even if the geometry stayed the same class.
The story of the Tensor G6 ultimately reflects Google’s broader approach. The company designs its own chips to control the stack. It accepts trade-offs to emphasize camera, AI and software integration. That bet created the Pixel’s identity. It also created persistent criticism around benchmarks and thermals. Peng’s confirmation won’t silence every skeptic. It does clarify the roadmap. Google isn’t rushing to match every node announcement from rivals. It moves when the timing and economics align.
Watch how the market reacts. Early Pixel 11 sales reports look strong. Buyers cite the cameras, clean software and AI tools more than silicon details. The 3nm reality barely registers for most. Yet inside the industry the choice sparks debate. Process nodes remain a proxy for ambition. When a company steps back from the latest node, questions follow. Google’s answers center on practical gains and steady progress. The Tensor G6 embodies exactly that.
And the gap to 2nm? It closes next year. Or the year after. For now, the Pixel 11 proves that an upgraded 3nm chip, paired with the right software, can still deliver a compelling flagship. The numbers don’t always tell the full story. Sometimes the real advance hides in refinement rather than revolution.