Fundamentals 9 min read

Intel’s 10nm Process Delays, + Naming Scheme, and the Path to Future Nodes

The article examines Intel’s delayed 10nm rollout, the confusing + naming hierarchy across its 14nm and 10nm generations, the performance trade‑offs of Cannon Lake, Ice Lake and Tiger Lake, and how the company’s shift to EUV and SuperFin aims to restore its manufacturing leadership.

Architects' Tech Alliance
Architects' Tech Alliance
Architects' Tech Alliance
Intel’s 10nm Process Delays, + Naming Scheme, and the Path to Future Nodes

Recent news about Intel’s manufacturing bottlenecks has drawn attention from semiconductor professionals and investors; the company’s 10nm process failed to meet performance and volume expectations, arriving years late and lagging behind its predecessor, while Tiger Lake is poised to become the first product that truly meets Intel’s 10nm goals.

Intel’s next step—adopting EUV (Extreme Ultra‑Violet) lithography to move to a 7nm node—has been pushed back by six months, further shaking confidence after the 10nm delay.

Historically, Intel introduced FinFET at the 22nm node in May 2011, followed by a successful 14nm generation that became the most profitable node for the company, with incremental updates denoted as 14+, 14++, 14+++, and 14++++ (the latter powering the Cooper Lake Xeon Scalable family).

Despite the 14nm successes, Intel’s 10nm effort has been troubled: two generations of 10nm CPUs have been released with little public detail. Cannon Lake, the first 10nm product, appeared in the Crimson Canyon NUC line but featured only two cores and a disabled integrated GPU, leading to criticism and rapid discontinuation.

Ice Lake, with four cores and a Gen11 iGPU under 15 W, entered over 50 notebook designs, offering 15‑20% performance gains at the cost of 10‑20% lower clock speeds; it also added support for Thunderbolt 3 and 512‑bit vector instructions, providing a modest advantage over 14nm.

Intel’s “+” naming convention (e.g., 10+, 10++, 10+++) was introduced to label incremental process improvements, but it has become a source of confusion for customers and engineers, especially as the company added more pluses to 14nm updates while the 10nm rollout stalled.

These incremental “BKM” updates—minor frequency or power‑efficiency tweaks—are common across nodes such as 22nm, 32nm, and 45nm, and they help maintain product competitiveness without a full node redesign.

Competitors like TSMC and Samsung clearly differentiate their process variants, whereas Intel’s reliance on the plus notation has drawn criticism and jokes, prompting calls for the company to move away from this naming style.

Eventually Intel responded by launching the SuperFin technology, a re‑engineered 10nm platform that leverages deeper transistor optimizations to regain performance leadership.

Supplementary material: The article includes a full PPT from the ArchDay 2020 presentation, which can be downloaded by replying “ArchDay2020” to the original post.

…(additional promotional images omitted for brevity)…

IntelSemiconductormanufacturing10nmFinFETprocess nodeSuperFin
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