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The 5 biggest problems Google needs to fix with the Pixel 11 series

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Key takeaway: the Pixel 11 series needs substantive hardware and software improvements to stay competitive — the article highlights a rumored Tensor G6 on TSMC 2nm as the primary path to meaningful performance gains versus current Tensor G5 and Qualcomm Snapdragon rivals. Battery and charging: author urges multi-day battery adoption (silicon‑carbon batteries cited; examples: OnePlus 15 7,300mAh, HONOR Magic V6 6,660mAh vs Pixel 10 Pro XL 5,200mAh) and faster, more consistent wired charging (current Pixels top at 30W–45W while competitors offer 65W–80W). Software and storage: calls for more reliable Pixel‑exclusive features and a jump in base storage to 256GB to match the iPhone 17 lineup (Pixel 10 base 128GB; price comps: Pixel 10 $799/$999/$1,199 vs iPhone 17 $799/$1,099/$1,199).

Analysis

If Google elects to materially change its silicon and component content on the next flagship refresh, the most obvious supply-chain beneficiary is the foundry that secures wafer volume and ASP uplift; that outcome compounds because higher-content phones also raise demand for power-management, RF front-end and NAND suppliers — each incremental BOM dollar flows disproportionately to specialist suppliers rather than OEMs. Qualcomm stands to gain twice: as a potential alternative in performance-critical SKUs and as a supplier of PMIC/wireless-charging IP if Google outsources those blocks rather than keep them in-house, creating a cadence of aftermarket design wins across multiple OEMs. Key risks are operational rather than conceptual: node-order timing, yield progression at the foundry, and software integration that translates silicon into user-perceived performance. Expect public catalysts spaced out — product leaks and marketing messages over weeks, formal supply agreements or tooling cadence over quarters, and volume-driven P&L inflection only after the next manufacturing ramp (several quarters to a year). Reversals will be binary: sustained yield problems or a software-led underperformance narrative would quickly re-price suppliers. Consensus is leaning toward a straight-line positive for the foundry and related component suppliers; the contrarian view is that performance parity can be achieved through firmware/stack improvements that reduce the importance of immediate node leadership, which would delay or halve the upside baked into foundry and NAND expectations. That makes asymmetric option structures attractive — buy selective convexity on the supplier side while limiting downside if the product execution disappoints.