Apple is said to have initiated mass production of its next-generation M5 chip, signaling a significant advancement in the company’s silicon technology, according to ET News (via MacRumors).
The source claims that the packaging phase of the M5 chip commenced last month, marking the final step in semiconductor manufacturing. This stage involves safeguarding the chip and establishing electrical connections with other components.
The fabrication of the M5 chip is being handled by Taiwan Semiconductor Manufacturing Company (TSMC), utilizing its advanced N3P process technology. This 3-nanometer process is expected to offer improved performance and energy efficiency over previous generations.
Following fabrication, the packaging process is managed by Outsourced Semiconductor Assembly and Test (OSAT) companies, including Taiwan’s ASE Group, America’s Amkor, and China’s JCET. ASE Group was the first to begin mass production, with Amkor and JCET anticipated to follow suit sequentially.
Initially, production is focusing on the base M5 model. The more advanced M5 Pro, M5 Max, and M5 Ultra variants are expected to enter mass production in the latter half of 2025, with the M5 Ultra following in 2026. These high-end models are anticipated to feature significant advancements over their predecessors, primarily through the adoption of TSMC’s System on Integrated Chip (SoIC) technology.
The first device expected to feature the M5 chip is a new iPad Pro, slated to enter mass production in the second half of 2025. Following the iPad Pro, the M5 chip is anticipated to be integrated into the MacBook Pro in late 2025, the MacBook Air in early 2026, and a successor to the Vision Pro headset between fall 2025 and spring 2026.
References to the M5 chip have already been discovered in official Apple code, suggesting that Apple plans to deploy the M5 chip within its AI server infrastructure to bolster AI capabilities across both consumer devices and cloud services.
Apple’s decision to utilize TSMC’s N3P process for the M5 chip, rather than the more advanced 2-nanometer process, is believed to be due to cost considerations.
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