Intel has accelerated its global footprint reset for 2026 after receiving investments from the US government, SoftBank, and Nvidia. Supply-chain sources said the company has relaunched its worldwide manufacturing sites, pushing ahead with Intel 18A mass production, 14A and high-NA EUV development, and advanced packaging programs including EMIB, EMIB-T, Foveros, and hybrid bonding (HB). The goal is to build an end-to-end manufacturing platform spanning advanced process nodes, chiplets, heterogeneous integration, and backend assembly and testing.
In the US, Oregon is focused on 18A, 14A, high-NA EUV, and HB research. Arizona covers 18A mass production, advanced packaging, assembly and testing, and EMIB, while also advancing a 12nm project with UMC under the internal code name Intel 10. New Mexico is concentrating on Foveros, EMIB-T, and 3D heterogeneous advanced packaging. Ohio is positioned as a long-term silicon wafer manufacturing base.
In Asia, Malaysia is building out both advanced packaging and assembly/test capabilities. The Pelican project is planned in three phases, with the first phase expected to start in 2027. Chengdu in China and Vietnam are primarily focused on scaled assembly and testing.
Malaysia's strategic role in Intel's manufacturing system has risen sharply. A multiyear expansion plan for backend facilities is already underway, with added capacity backed by customer demand and order commitments. Penang and Kulim have long handled chip assembly, packaging, testing, and product engineering, and are now gradually moving from traditional backend hubs to EMIB, Foveros, and chiplet-based heterogeneous integration.
In Europe and the Middle East, Fab 34 in Ireland is focused on Intel 3 and EUV processes, while Israel continues to support Intel 7.
From wafer fab to full-service platform
Supply-chain sources said Intel's sites in Oregon, Arizona's Fab 52, and the New Mexico plant, as well as overseas sites in Ireland, Malaysia, Chengdu, and Vietnam, are shifting from a wafer-manufacturing-centric model to a full-service platform that integrates advanced process and packaging. The global network is being activated in sync.
Intel's Hillsboro Gordon Moore Park campus and D1X research fab in Oregon are responsible for next-generation transistors, lithography, materials, process integration, high-NA EUV, and volume-manufacturing technology development. New process nodes are typically developed, validated, and tuned for early yield there before being transferred to Arizona, Ireland, and other mass-production sites.
ASML said Intel has brought its EXE high-NA EUV technology into mass production for some Panther Lake processors in the Core Ultra Series 3 family. Certain layers in Intel 18A have also completed dual high-NA EUV validation in Oregon, with product yields reaching levels comparable to the NXE platform and shipments already going to customers.
Supply-chain estimates put the current 18A monthly capacity at about 30,000 wafers, concentrated in Arizona and Oregon. As Core Ultra Series 3, Nova Lake, and future data-center processors raise the share of 18A adoption, Intel is also expanding wafer starts and equipment scale.
18A yields have since improved to above 80%, while Arizona Fab 52 is expected to ramp in late 2026. The performance-enhanced 18A-P is also moving forward.
The closely watched 14A process could reach mass production about six months earlier than originally planned, now expected in 2029.
EMIB-T targets AI orders
Advanced packaging is another key part of Intel's effort to rebuild foundry competitiveness. Supply-chain sources said EMIB-T yields have reached 98%, and the technology has secured orders from AWS and Google, in line with a roadmap set out three years ago.
The debate is no longer only about whether Intel can catch TSMC. By 2026, the focus has shifted to whether 18A can scale reliably, whether 14A can stay on schedule and win outside customers, and whether EMIB can emerge as an alternative to TSMC CoWoS for major AI chipmakers.
Intel's 18A matters not only because it marks a new process node, but also because it underpins the rebuilding of stable, advanced-node mass production. 18A and 18A-P are expected to form the basis for at least three generations of PC and server processors, creating substantial wafer shipment volume over the next several years.
Recent reports have suggested that higher 18A yields and rising pricing for TSMC's advanced processes could prompt Intel to rebalance production of the compute tile in the Nova Lake platform toward its own 18A process. But supply-chain sources said the wafer-start scale has largely been set, and with TSMC capacity running full, further changes are expected to be limited.
In advanced packaging and 3D heterogeneous integration, Foveros has become an important bridge between Intel's own process nodes and external foundry resources such as TSMC. EMIB-T, which incorporates through-silicon via (TSV) technology, is mainly aimed at large AI GPUs and custom AI accelerators.
Supply-chain sources said TSMC currently controls global advanced process technology, advanced packaging, and large-scale capacity, along with the bulk of major chip customer orders. Samsung Electronics continues to push sub-2nm process development and has also been widely reported to be adding external customers beyond Tesla.
Intel's US manufacturing and packaging footprint gives it a domestic advantage. Recent equipment purchases underscore growing order momentum as 18A ramps, 14A accelerates, and EMIB-T wins more customers.
Article translated by Charlene Chen and edited by Jerry Chen
