A close-up view of an Apple A22 Pro chip on a circuit board.

Apple’s First 1.4nm Chips Could Arrive by 2028 as TSMC Accelerates Production to Meet AI Demand

TSMC 1.4nm Chip Production Could Put Apple’s A22 Pro Ahead in the AI Era, but Supply Risks Are Growing

Apple has long used TSMC’s most advanced chipmaking technology to keep its iPhone processors ahead of the competition. That strategy could continue with the rumored A22 Pro, which may become one of the first smartphone chips built on TSMC’s next-generation 1.4nm process.

The move would be a major step forward for Apple’s custom silicon, but it may not happen purely by choice. The global AI boom is pushing demand for cutting-edge semiconductors to record levels, and TSMC is reportedly accelerating its roadmap to keep up. As artificial intelligence workloads expand across data centers, smartphones, laptops, and edge devices, chipmakers are racing to secure access to the most advanced manufacturing nodes available.

According to analyst expectations, TSMC is now targeting mass production of its 1.4nm process, also known as A14 or Angstrom-class technology, in the first half of 2028. Pilot production is expected to begin earlier, possibly in the third quarter of 2027. If that schedule holds, Apple could be in a strong position to launch a future A-series chip, potentially the A22 Pro, using the new manufacturing process.

For Apple, being early to TSMC’s 1.4nm node could deliver a major performance and efficiency advantage. Each new process generation typically allows chips to become faster, more power-efficient, or both. In smartphones, that can mean better battery life, improved gaming performance, faster on-device AI features, stronger camera processing, and more capable machine learning tasks without relying as heavily on cloud servers.

The timing is important. Apple has been placing more emphasis on artificial intelligence across its hardware and software ecosystem. A more advanced A-series chip could help future iPhones run more AI features directly on the device, improving privacy and responsiveness while reducing dependence on external servers. If Apple can secure enough 1.4nm capacity ahead of competitors, the company could regain or strengthen its technological lead in mobile processors.

However, the same AI demand that creates this opportunity also creates a serious challenge.

TSMC’s most advanced production lines are already under intense pressure from major customers seeking chips for AI accelerators, servers, smartphones, and high-performance computing products. Demand for advanced chips is expected to remain extremely strong through 2026 and 2027, meaning TSMC may need to move faster than originally planned with its 1.4nm rollout.

Earlier expectations suggested that 1.4nm wafer production might begin in the second half of 2028. Now, with demand rising rapidly, TSMC may push mass production into the first half of that year to deliver initial revenue in the second half. To support this transition, the company is expected to rely on multiple facilities to increase output and reduce supply constraints.

Apple remains one of TSMC’s most important customers, even if it is no longer necessarily the company’s biggest growth driver compared with the exploding AI chip market. The iPhone maker still contributes a large portion of TSMC’s annual revenue and has historically been one of the earliest adopters of new process nodes. That relationship gives Apple an advantage, but it does not eliminate the risk of limited supply.

The cost of 1.4nm production could also become a major factor. Reports suggest that a single 1.4nm wafer may cost around $45,000. That is an enormous price, even for top-tier technology companies. Apple may be able to absorb some of that cost thanks to its scale, premium pricing, and tight control over its hardware ecosystem. Other mobile chip companies may have a harder time justifying the expense.

Qualcomm and MediaTek, for example, could face difficult choices. If they move to 1.4nm too quickly, the high wafer cost may force them to raise prices for flagship smartphone chips. That would likely make premium Android phones even more expensive at a time when consumer demand for high-end smartphones is already under pressure. If they delay the move and remain on 2nm technology for another generation, Apple could gain a meaningful performance and efficiency advantage.

This creates a complicated situation for the broader smartphone market. On one hand, TSMC’s 1.4nm technology could unlock a new wave of faster and more efficient mobile processors. On the other hand, rising production costs may make the most advanced chips too expensive for many device makers to adopt immediately.

For Apple, the AI boom is both a blessing and a risk. It could help the company justify an aggressive shift to 1.4nm chips and bring more powerful AI features to future iPhones. At the same time, the intense competition for TSMC’s advanced capacity could make supply planning more difficult and expensive.

If Apple introduces the A22 Pro on TSMC’s 1.4nm process, it could mark one of the biggest leaps in iPhone chip technology in years. The chip may deliver stronger on-device AI performance, improved energy efficiency, and higher processing power for demanding tasks such as computational photography, gaming, video editing, and real-time language models.

Still, the success of that transition will depend on how quickly TSMC can scale production and how much capacity Apple can secure. With AI companies, cloud providers, and mobile chip designers all competing for the same advanced manufacturing resources, access to leading-edge nodes may become one of the most important advantages in the tech industry.

The coming years could reshape the semiconductor race. TSMC’s 1.4nm process is expected to be at the center of that shift, and Apple’s A22 Pro may be one of the first major consumer chips to show what the new technology can do.