Watch chip fab projects
TinySet tracks chip fabs under construction. TinyResearch explains where manufacturing is moving and the supply risks.
TinySet
Dataset · 50 rowsChip fabs under construction, with company, country, process node and expected start
| Fab project | Company | Country | Process node |
|---|---|---|---|
| Rapidus IIM-1 | Rapidus | Japan | 2nm |
| TSMC Arizona Fabs | TSMC | United States | N2 |
| Micron Megafab (Clay NY) | Micron | United States | |
| Micron Boise DRAM Megafabs | Micron | United States | Leading-edge DRAM |
| Texas Instruments Sherman Fabs | Texas Instruments | United States | 28-130nm |
| Intel Silicon Heartland Fabs | Intel | United States | 14A |
| Intel Chandler Expansion | Intel | United States | 18A |
| Samsung Taylor Fab | Samsung Electronics | United States | 2nm |
TinyResearch
ReportWhere is chip manufacturing moving, and what are the supply risks?
The global semiconductor industry is undergoing its most dramatic geographic restructuring since the 1990s, driven simultaneously by AI-fueled demand growth, geopolitical competition, and hard lessons from pandemic-era shortages. Global chip sales reached a record $795.6 billion in 2025 and are projected to reach $1.5 trillion in 2026 and $2.3 trillion by 2030 [4][6][52]. Production remains dangerously concentrated: TSMC alone holds 72.5% of foundry revenue and Taiwan produces the overwhelming majority of the world's most advanced chips [32][46]. A massive, multi-trillion-dollar buildout is underway across the US, Europe, Japan, South Korea, and India — but most new capacity will not reach volume production until 2028–2030, leaving a multi-year window of acute vulnerability. Meanwhile, China is making real but constrained progress toward self-sufficiency, and a cascade of chokepoints — in lithography equipment, rare earth materials, advanced packaging, water, energy, and talent — means that even well-funded diversification plans face serious execution risk.
