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1Scan for outdated or missing drivers - takes under a minute2Repair Windows errors before they cause bigger problems3Fix the driver behind crashes, sound loss and screen glitchesSamsung Foundry has shifted its near-term emphasis to stabilizing its 2nm process and winning customers, while moving its target for mass-producing 1.4nm chips from 2027 to 2029. The change is a delay in manufacturing, not an abandonment of 1.4nm: Samsung has also outlined an SF1.4 Plus follow-on for 2030.
The business question is whether Samsung can turn 2nm into a dependable, high-volume platform. A leading-edge process matters to customers only when it can deliver the yield, cost, capacity and schedules their products require.
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What changed in Samsung’s 1.4nm roadmap?
Samsung’s 2022 roadmap targeted SF1.4 mass production in 2027. In 2026, the company’s revised target was reported as 2029, with SF1.4 Plus planned for 2030. Those dates concern mass production; they do not establish that Samsung stopped research, design enablement or early customer work on 1.4nm. Samsung’s original 2022 roadmap and the later report on its revised schedule show how the target changed.
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Random freezes, missing sound and display glitches usually trace back to one bad driver. Find and replace yours safely.Free scan · under a minuteSamsung’s 2026 investor materials continued to describe SF1.4 as on track while emphasizing large-scale 2nm customer expansion. “On track” therefore refers to the revised roadmap, not the old 2027 target. Samsung’s first-quarter 2026 investor presentation frames the two processes as sequential priorities, not mutually exclusive bets.
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Why put 2nm execution first?
Yield affects cost and delivery
A wafer contains many dies, but only some may meet a chip’s functional, performance and power requirements. Better yield means more usable chips from each wafer, lowering the effective cost per chip and making delivery volumes more predictable. Poor or unstable yield can raise costs, constrain shipments and undermine customer confidence. Samsung’s 2025 shift toward improving yield and optimizing 2nm and 4nm was reported in that context; no verified yield percentage is established here. ZDNet Korea’s 2025 report also cited Samsung’s foundry share at 7.7% in the first quarter of 2025, compared with TSMC’s 67.1%.
Customers need a production-ready platform
Choosing a foundry is a lengthy technical and commercial commitment, not a decision made from a node label. Customers need compatible design tools and process-design kits, test chips, validation, production schedules and confidence that capacity will be available when their products launch. Samsung’s investor materials emphasize expanding 2nm customer activity, while the company has said it expects more advanced-logic customer wins. Those statements indicate business development; they do not, by themselves, establish named customers, order sizes or volume production. The report on Samsung’s customer outlook describes expectations rather than a list of confirmed orders.
2nm is closer to near-term design decisions
Samsung has discussed expanding 2nm orders in 2026 and pursuing projects with large U.S. and Chinese customers. A stable 2nm offering may be more relevant to designs now moving through evaluation than a more distant 1.4nm process. Samsung’s 2nm family is called SF2 and uses gate-all-around (GAA) transistors. The company has also presented process derivatives such as SF2P. Its descriptions of performance and power-efficiency improvements over 3nm are company claims, not independent cross-foundry test results. Samsung’s 2024 foundry announcement outlines its technology claims and roadmap.
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- NFC SUPPORT: Includes Near Field Communication (NFC) capabilities, expanding potential use cases and application scenarios
“2nm” and “1.4nm” are process-generation names, not literal measurements of every transistor feature. Different manufacturers use their own naming conventions, so the number alone cannot establish which process is faster, denser, cheaper or more power-efficient.
What does attracting a foundry customer actually involve?
Samsung is seeking business from chip designers that outsource manufacturing: potential customers include fabless AI and smartphone-chip companies, automotive suppliers, networking and data-center developers, and large technology companies building custom silicon. A discussion or design win is not the same as a chip in volume production. The usual progression can include:
- Technical discussions and evaluation: The customer assesses whether the process, tools and commercial terms fit its product.
- Design enablement: The customer uses the process-design kit, compatible intellectual property and design flows to develop the chip.
- Tape-out and test fabrication: The design is sent for manufacturing; early silicon is evaluated for function, performance and power.
- Validation and risk production: The design and manufacturing process are qualified before larger commitments.
- Volume manufacturing: Production scales to meet the customer’s demand.
Public references to talks, expected wins or tape-outs should be read at the stage actually reported. They do not prove a later stage has occurred.
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How Samsung is lowering barriers to trying 2nm
Multi-project wafers
Samsung plans to extend its multi-project-wafer (MPW) service to 2nm in 2027, according to reporting from a Samsung ecosystem event. MPW lets multiple customers share wafer costs for early designs, making prototype access less burdensome than funding a dedicated wafer run. It can help build a design ecosystem and bring new customers into the process, but access to MPW is not evidence that the node is ready for unlimited high-volume production. The report on Samsung’s planned 2nm MPW access gives the stated timing.
Tesla and other customer leads
Korean industry reporting said Samsung and Tesla had completed tape-out of Tesla’s AI5 chip, which was expected to use Samsung’s 2nm process at the Taylor, Texas facility. The report relied on a Samsung researcher’s social-media post, rather than a formal joint announcement. It should therefore be treated as a reported tape-out, not proof that Samsung is already mass-producing the chip. The report on the AI5 tape-out provides that attribution.
Samsung has also discussed advanced-logic business with major technology customers and expects further 2nm design wins, but has not publicly named every prospective customer or disclosed order sizes. Separately, Samsung and Broadcom announced a collaboration covering memory and Samsung’s 2nm-and-below foundry technologies for AI and communications products. That illustrates the broader platform Samsung is pitching; it does not identify every product or establish manufacturing volumes. Samsung’s announcement with Broadcom describes the collaboration.
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- Integrated Antenna: Features PCB trace antenna built directly on-board for immediate testing and development without requiring external antenna components
Why Taylor, Texas matters—and what it does not mean
Samsung has discussed installing 2nm equipment at its Taylor, Texas fab and planning volume production there for 2027. U.S. production could appeal to customers seeking geographically diversified supply chains or an American manufacturing option, particularly in AI, automotive and other strategically sensitive sectors. It does not mean all Samsung 2nm production will move to Texas: the site is part of a wider network that also includes Korean facilities. The report on Taylor’s 2nm plans gives the stated schedule.
Samsung’s wider foundry pitch
Samsung’s proposition is broader than a wafer process. The company can combine logic manufacturing with memory and advanced packaging, and has discussed 2nm for future HBM base-die applications. This kind of integration may matter to AI and high-performance-computing customers that need several components to work together. But the promise of a broader offering is not the same as proof that a specific customer has adopted every part of it. Samsung’s comments on HBM base dies are reported here.
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How the strategy compares with TSMC and Intel
Samsung’s challenge is as much about customer depth and manufacturing execution as process technology. TSMC’s reported 67.1% foundry share in the first quarter of 2025, against Samsung’s 7.7%, illustrates the commercial scale gap at that point in time. Market share does not settle which company has the best process for a particular chip, but it reflects the difference in their customer and revenue bases.
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Intel is also seeking leading-edge foundry customers and has a U.S. manufacturing footprint. Samsung is trying to distinguish its offer through GAA technology, a combination of foundry and memory capabilities, packaging, and U.S. capacity. Comparing “1.4nm” directly with another company’s node name is not meaningful by itself: customers must weigh performance, power, area, yield, cost, capacity and design-migration effort. A report on TSMC’s 2029-class roadmap described progress toward performance and SRAM-yield milestones, underscoring the pressure on Samsung to deliver rather than simply announce a target. The roadmap report is one comparison point, not an apples-to-apples test of the competing processes.
What Samsung gains—and risks—by prioritizing 2nm
The potential upside
- Samsung can focus engineering and manufacturing resources on a process nearer to current customer design cycles.
- Improved yield and predictable capacity could lower costs and help rebuild customer confidence.
- MPW access and design support may let more companies evaluate SF2 before committing to larger production runs.
- Texas capacity and the combination of logic, memory and packaging give Samsung additional reasons for customers to consider its platform.
The trade-offs
- Competitors could secure important early customers for their next-generation processes while Samsung waits.
- A longer gap before 1.4nm production may reinforce perceptions that Samsung is behind, whether or not its eventual process is competitive.
- If 2nm work continues to consume resources or misses customer requirements, the 2029 target could face further pressure.
- Customers may prefer to remain with a familiar foundry rather than migrate later, even if Samsung’s process becomes attractive.
None of those outcomes is determined by the schedule alone. Whether the strategy succeeds will depend on manufacturing results and customer adoption, not the nominal nanometer label.
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