Intel has hired former Samsung executive Shawn Han to lead its foundry services division, signaling a major escalation in the global semiconductor foundry race as the company seeks to close the gap with TSMC and regain ground lost to Samsung Foundry in advanced process nodes.
The Strategic Hire: Shawn Han and Intel’s Foundry Ambition
Shawn Han, a veteran of Samsung’s semiconductor division with over two decades of experience in process technology and foundry operations, joins Intel as Corporate Vice President and General Manager of Foundry Services. His appointment comes as Intel accelerates its IDM 2.0 strategy, aiming to become the world’s second-largest foundry by 2030. Han’s expertise in managing high-volume production at Samsung’s 3GAP (3nm Gate-All-Around) line is expected to bolster Intel’s efforts to stabilize yield on its Intel 18A process, which utilizes RibbonFET transistors and PowerVia back-side power delivery—a architecture Intel claims offers up to 15% lower power consumption at iso-performance compared to TSMC’s N3E.
This move is not merely about personnel; it’s a signal that Intel is treating foundry competitiveness as a core engineering challenge, not just a business expansion. Han’s background in Samsung’s DFM (Design for Manufacturability) co-optimization teams could help bridge the gap between Intel’s IDM advantages and the flexibility required by external fabless customers.
Technical Realities: Intel 18A vs. TSMC N3 and Samsung 3GAP
While Intel markets Intel 18A as a “2025 production node,” independent analysis from TechInsights suggests its initial risk production yields are still below 60% for complex SoCs, lagging behind TSMC’s N3E, which maintains yields above 80% in high-volume manufacturing. Han’s experience with Samsung’s early 3GAP yield ramp—where initial yields hovered around 55% before climbing to 70%+ after 18 months—could prove critical in diagnosing and resolving Intel’s systemic variability issues, particularly around gate stack uniformity and back-side dielectric integrity in PowerVia implementations.
Intel’s reliance on EUV lithography from ASML remains a bottleneck. Unlike TSMC, which has secured priority access to ASML’s NXE:3800E and upcoming NA:EXE systems, Intel’s EUV tool availability is constrained by competing internal demands across its IDM 2.0 fab network. Han’s familiarity with Samsung’s ASML partnership dynamics may help Intel negotiate better tool allocation and predictive maintenance protocols.
Ecosystem Bridging: Attracting Fabless Customers in a GPU-Dominated Era
Intel’s foundry push faces a fundamental challenge: most advanced-node demand comes from AI accelerators and GPUs, where TSMC holds over 90% market share. To compete, Intel must offer not just competitive process nodes but also a compelling ecosystem. This includes PDK (Process Design Kit) maturity, DTCO (Design-Technology Co-Optimization) support, and access to advanced packaging like Foveros Direct and EMIB.
Han’s background in Samsung’s foundry customer enablement teams could accelerate Intel’s efforts to certify its PDKs with major EDA vendors. As of Q1 2026, Synopsys and Cadence have released preliminary PDKs for Intel 18A, but full sign-off remains pending for complex multi-die designs. “Intel’s device physics are impressive, but their PDK stability and DRC deck maturity still trail TSMC by a generation,” said
Dr. Lin Mei, Senior Fellow at Broadcom’s Advanced Packaging Group, in a private briefing attended by industry analysts.
“If Shawn Han can bring Samsung-level PDK rigor to Intel 18A, that’s a game-changer for fabless adopters.”
Meanwhile, open-source initiatives like OpenROAD and the CHIPS Act-funded National Advanced Packaging Manufacturing Program (NAPMP) are creating alternative pathways for design enablement. Intel’s participation in these efforts—particularly its contribution to the OpenROAD-based RTL-to-GDSII flow for 18A—could reduce dependency on proprietary EDA tools and attract cost-sensitive startups.
Geopolitical Undercurrents: The Chip War’s Novel Frontline
This hire occurs amid intensifying U.S.-China tech restrictions and the CHIPS Act’s $52 billion push to reshore semiconductor manufacturing. Intel’s Ohio and Arizona fabs, both slated for 18A production, are receiving federal subsidies contingent on meeting domestic output and technology transfer benchmarks. Han’s appointment may be interpreted as a signal to Washington that Intel is serious about executing its foundry mission—not just securing subsidies.
as Samsung Foundry navigates its own yield struggles with 3GAP and faces increasing pressure from TSMC’s N2 roadmap, Intel’s poaching of a senior Samsung executive adds a psychological dimension to the foundry wars. It underscores a broader trend: top-tier process engineering talent is becoming a decisive asset in the race for nodes below 3nm, where atomic-scale variability demands deep empirical expertise.
The 30-Second Verdict
Intel’s hiring of Shawn Han is a calculated engineering play, not a PR stunt. It addresses a critical weakness in Intel’s foundry offering: process maturity and customer enablement at the leading edge. While TSMC remains the undisputed leader, and Samsung Foundry fights to regain momentum, Intel’s bet on Han suggests it believes the next wave of foundry competition will be won not just by capital expenditure, but by who can best translate lab-scale device innovations into reliable, manufacturable wafers—fast.
For now, the real test will be whether Intel 18A can achieve volume production yields above 70% by late 2026, and whether fabless AI chip designers start to qualify Intel as a credible second source. If Han can deliver on even one of those fronts, this hire may be remembered as the turning point in Intel’s foundry ambition.
