Pixel 11 Tensor G6 Chip Uses 3nm Process, Not 2nm
Google's anticipated Tensor G6 chip for the Pixel 11 will utilize TSMC's 3nm manufacturing process, not the previously rumored 2nm node. The company confirmed the details, highlighting performance and AI enhancements.

The upcoming Google Pixel 11 smartphone will not feature the highly anticipated Tensor G6 chip built on TSMC's 2nm process, contrary to earlier speculation. Peng Yu-chun, VP of Hardware at Google, confirmed in a statement to CNA that the Tensor G6 will instead be manufactured using TSMC's 3nm process. This news corrects widespread reports that suggested Google would be the first company to integrate a 2nm smartphone chip, potentially outpacing rivals like Apple in adopting the cutting-edge fabrication technology.
Despite the shift from the 2nm node, the Tensor G6 is set to bring significant upgrades to the Pixel 11. Google highlighted enhanced performance metrics, including a CPU that promises 25% faster web browsing and 15% quicker app launches. The chip will also boast 50% more TPU compute power, enabling advanced on-device artificial intelligence capabilities with support for a new Gemini Nano model. Photography is also expected to see improvements, with an upgraded Image Signal Processor designed to enhance features like Night Sight and digital zoom. Furthermore, the Tensor G6 incorporates an upgraded Titan M3 security chip, bolstering the device's overall security architecture.
Manufacturing Process and Efficiency
The decision to proceed with the 3nm process rather than the 2nm node may signal a strategic adjustment by Google. While a 2nm process typically offers greater power efficiency, the 3nm node still represents a substantial leap forward from previous generations. Industry analysts suggest that Google may have prioritized a balance of performance gains and production readiness, as TSMC's 3nm process is more mature and widely available for mass production in 2026. Early reports had indicated the use of advanced ARM CPU cores, but also pointed to a less competitive GPU compared to chips from other leading smartphone manufacturers. The precise implications of using the 3nm process on overall battery life and sustained performance for the Pixel 11 remain to be seen.
TSMC's 3nm technology, also known as N3, offers a density improvement over its 5nm predecessors, leading to better performance and energy efficiency. For smartphone manufacturers, adopting newer process nodes is crucial for delivering devices with longer battery life and the processing power required for demanding applications, including advanced AI, high-resolution gaming, and complex computational photography. Google's ongoing collaboration with TSMC for its custom Tensor chips underscores the importance of semiconductor manufacturing advancements in the competitive smartphone market. The company has consistently leveraged its custom silicon to differentiate its Pixel devices, focusing on AI-driven features and camera performance.
The Pixel 11 is also set to introduce other hardware improvements beyond the Tensor G6 chip. Recent leaks and reports indicate that the smartphone will feature an updated antenna design for improved contactless payment experiences and enhanced durability for its displays. The move to a more advanced manufacturing node, even if not the bleeding-edge 2nm, is a critical step for Google to maintain parity and push innovation in the premium smartphone segment. The company's commitment to developing its own silicon with AI capabilities at its core continues to be a defining characteristic of the Pixel line.
