Apple’s future iPhone chips could be heading for another major manufacturing shift, but the most advanced process may be reserved for the company’s Pro models first.
According to industry reports, Qualcomm and MediaTek are expected to use TSMC’s enhanced 2nm N2P process later this year, potentially giving their next-generation smartphone chips a performance and efficiency edge. Apple is also expected to adopt the same upgraded node, but possibly not until the A21 Pro, which would likely power a future Pro-level iPhone model.
The standard A21 chip, expected for the base iPhone 20 lineup, may continue using TSMC’s original 2nm N2 process instead of the newer N2P version. If accurate, this would continue Apple’s recent strategy of giving its Pro iPhones more advanced silicon while keeping the standard models on a slightly less cutting-edge manufacturing node.
The reason may come down to cost. Advanced chip production is becoming increasingly expensive, and rising wafer prices are putting pressure on profit margins across the industry. Memory costs are also expected to remain a concern, making it harder for device makers to control expenses. Even for a company as financially powerful as Apple, using the latest semiconductor process across every iPhone model may not always make business sense.
TSMC’s 2nm N2 process is already expected to be used for Apple’s A20 and A20 Pro chips, and the standard A21 may reportedly remain on that same node. Meanwhile, the A21 Pro could move to the improved 2nm N2P process, allowing Apple to keep its premium iPhone models competitive against upcoming flagship chips from Qualcomm and MediaTek.
However, the difference between TSMC’s N2 and N2P technologies may not be dramatic. Reports suggest N2P could offer around a 5 percent performance improvement at the same clock speed. That is useful, but not necessarily a game-changing leap. Apple has often relied on architecture improvements, custom core design, and software optimization to deliver major gains even without always depending solely on a newer manufacturing process.
A recent example is Apple’s focus on efficiency-core improvements in its latest Pro chips, where architectural changes helped deliver stronger performance while keeping power consumption under control. This shows that Apple may still be able to make the standard A21 highly competitive, even if it does not use the upgraded N2P process.
Looking further ahead, Apple is reportedly planning an even bigger transition with the A22 Pro in 2028. That chip is said to be targeting TSMC’s 1.4nm process, which would mark Apple’s first move beyond the 2nm generation. If this timeline holds, the A22 Pro could become one of the most advanced mobile processors of its time.
Interestingly, reports do not clearly state whether the standard A22 would also use the 1.4nm process. That suggests Apple may continue separating its regular and Pro iPhone chips more aggressively in the coming years. This approach helps the company highlight the value of its premium models while managing production costs for the broader iPhone lineup.
For consumers, the main takeaway is that future Pro iPhones may receive the newest chip technology first, while standard models could use a slightly older but still highly advanced process. That does not mean the base iPhone models will be slow. Apple’s chip design remains among the strongest in the smartphone industry, and even a standard 2nm chip would represent a major step forward in performance and energy efficiency.
Still, these details should be treated as early industry information rather than confirmed plans. Apple’s chip roadmap can change depending on manufacturing yields, wafer pricing, supply chain conditions, and TSMC’s production schedule.
If the reports are accurate, the next few years could bring a clear split in Apple’s mobile processor strategy: standard iPhone models receiving powerful but cost-conscious chips, while Pro models get the most advanced manufacturing technology first. This would help Apple balance performance, pricing, and profitability as the smartphone chip race moves deeper into the 2nm era and beyond.
