Key highlights
- 1The U.S. semiconductor fab construction market is expected to reach USD 59 billion by 2036, at a CAGR of 7.0% from 2026 to 2036, from a historically high base.
- 2Arizona is the largest state market, driven by TSMC's more than USD 65 billion three-fab campus in Phoenix and Intel's Ocotillo expansion in Chandler.
- 3New fab (greenfield) construction is the largest construction-type segment, reflecting the wave of new campuses catalyzed by the CHIPS and Science Act.
- 4Wafer fabrication facilities are the largest facility-type segment, followed by advanced packaging and assembly and test facilities.
- 5Cleanroom and process-utility systems are the highest-value construction scope, given the extreme environmental and contamination-control requirements of fabs.
- 6The CHIPS and Science Act has catalyzed over USD 450 billion in announced private semiconductor investment across more than 20 states, according to the SIA.
- 7Leading-edge logic is the largest end-use, with Intel, TSMC, Samsung, and Micron anchoring the largest projects.
- 8Specialized fab builders and engineers, including Bechtel, Exyte, Jacobs, DPR Construction, Hoffman Construction, and Sundt, lead the market.
- 9Skilled-labor availability, long lead times, and project delays are the primary constraints on the pace of construction.
U.S. Semiconductor Fab Construction Market: CHIPS Act Investment, Domestic Manufacturing, and Advanced Packaging Drive Market Growth
- 1
CHIPS Act Investment Catalyzes an Unprecedented Construction Boom
The CHIPS and Science Act is the fundamental driver of the market, catalyzing an unprecedented wave of fab construction. The Act provided USD 52.7 billion in funding, including roughly USD 39 billion in manufacturing incentives, and has catalyzed, according to the Semiconductor Industry Association, over USD 450 billion in announced private investment across more than 20 states, projected to create over 125,000 jobs. This public and private investment has translated into a surge of fab construction: the U.S. Department of Commerce has finalized major CHIPS incentive awards, including for TSMC Arizona, Intel, Micron, GlobalFoundries, and Samsung, each of which anchors large construction projects. Because construction and facilities typically represent a substantial share of the cost of a new fab, this investment wave has driven semiconductor manufacturing construction spending to record levels, making the CHIPS Act the central catalyst of the market and the primary reason it stands at a historically high base.
- 2
Leading-Edge Fab Projects Anchor Demand
A small number of very large leading-edge fab projects anchor the majority of construction demand. TSMC is building a campus of three greenfield leading-edge fabs in Phoenix, Arizona, backed by a planned investment of more than USD 65 billion, one of the largest greenfield projects in U.S. history. Intel is constructing new fabs in Ohio, at its New Albany site, and expanding its campuses in Chandler, Arizona, Rio Rancho, New Mexico, and Hillsboro, Oregon, supported by a USD 8.5 billion direct CHIPS award. Micron is developing major memory fab projects in Clay, New York, and Boise, Idaho, with plans for investment of up to USD 100 billion in New York over two decades, while Samsung is building in Taylor, Texas, and Texas Instruments is constructing multiple fabs in Sherman, Texas, and Lehi, Utah. These flagship projects, each representing billions of dollars of construction, concentrate demand and define the scale and complexity of the market.
- 3
Fab Construction Is Among the Most Complex Forms of Industrial Construction
Semiconductor fabs are among the most complex and demanding facilities to construct, which shapes the market and its specialized supplier base. A fab requires vast cleanrooms maintained to extreme standards of cleanliness, vibration control, and temperature and humidity stability, extensive process utilities for ultrapure water, specialty gases and chemicals, and abatement, and highly sophisticated mechanical, electrical, and plumbing systems, all built to exacting tolerances. The construction of a single leading-edge fab can involve tens of thousands of workers at peak and take several years, and the facilities and construction typically account for a significant share of total fab cost. This complexity requires specialized engineering and construction firms with deep semiconductor expertise, and it makes fab construction a distinct, high-value segment of industrial construction, differentiating it sharply from conventional building.
- 4
Advanced Packaging and Supply-Chain Localization Broaden the Market
The growth of advanced packaging and the drive to localize the full semiconductor supply chain are broadening the market beyond wafer fabs. As advanced packaging, including 2.5D and 3D integration, becomes essential to leading-edge chips and artificial intelligence, investment in domestic advanced packaging and assembly and test facilities is growing, with projects such as Amkor's planned facility in Arizona and SK hynix's advanced packaging facility in Indiana. In addition, the effort to build a more complete domestic supply chain is driving construction of related facilities, including materials, substrate, and equipment plants. This broadening of investment beyond front-end wafer fabs to packaging and the wider ecosystem is expanding the addressable market for fab and facility construction, adding a growing source of demand alongside the large leading-edge fab projects and supporting the market's long-term development.
- 5
Labor, Timelines, and Cost Pressures Shape the Pace of Construction
Labor availability, timelines, and cost pressures are central factors shaping the pace and economics of the market. The scale and concentration of fab construction have created intense demand for skilled construction labor, including specialized trades, straining local labor markets and driving competition for workers, particularly in construction hubs such as Arizona. Long lead times for materials and equipment, permitting, and the sheer complexity of fabs have contributed to project delays and rephasing at several sites, and rising construction costs have pressured project economics. These constraints, together with shifts in demand and policy, influence the timing and pace of construction and are a key consideration for developers and contractors. Addressing labor and workforce development, and managing timelines and costs, is central to delivering the wave of fab construction and to the health of the market.
Segmental analysis
By Construction Type
- New greenfield construction is the largest segment driven by the wave of entirely new campuses catalyzed by the CHIPS and Science Act, including TSMC's Phoenix campus and Intel's Ohio site, which involve the construction of complete new facilities and supporting infrastructure.
- Expansion and brownfield work adding capacity at existing sites such as Intel's Arizona and Oregon campuses and Micron's Idaho site, is a substantial and generally lower-risk segment that leverages existing infrastructure.
- Renovation and retrofit upgrading existing facilities for new processes, is a smaller but steady segment.
Greenfield construction is expected to remain the largest segment through the near-term buildout, while expansion is expected to grow in importance as new campuses mature and capacity is added incrementally.
By Facility Type
- Wafer fabrication facilities are by far the largest segment reflecting the scale and cost of front-end fabs, which dominate the largest projects such as those of TSMC, Intel, Micron, and Samsung.
- Advanced packaging and assembly and test facilities are the fastest-growing segment, driven by the strategic importance of advanced packaging for AI and leading-edge chips and by the effort to localize this capability, with projects such as Amkor in Arizona and SK hynix in Indiana.
- Research and development facilities including those supported by initiatives such as the National Semiconductor Technology Center, represent a smaller but strategically important segment.
The dominance of wafer fabs and the rapid growth of advanced packaging together shape the facility mix of the market.
By Construction Scope
- Cleanroom systems and process utilities together with the mechanical, electrical, and plumbing scope, represent the highest-value and most specialized portion of fab construction, given the extreme requirements for contamination control, ultrapure utilities, and precise environmental conditions.
- Structural and building construction provides the shell and core while engineering and design, often performed by specialized firms, is critical given the complexity of fabs.
- Tool installation and hook-up connects the process equipment to facility systems.
The concentration of value in cleanroom, utility, and mechanical, electrical, and plumbing systems distinguishes fab construction from conventional building and underpins the role of specialized contractors in the market.
By End User
- Leading-edge logic and advanced memory manufacturers account for the largest share of construction value, given the scale of their fabs, while a broadening set of end users across packaging, specialty devices, and the wider ecosystem is expanding demand.
The concentration of demand among a small number of large chipmakers, together with the growth of packaging and ecosystem players, defines the end-user structure of the market.
Voice of Customer
Primary interviews conducted for this study consistently emphasized that fab construction is defined by complexity, speed, and the availability of skilled labor. Two representative perspectives are summarized below.
"Building a fab is not like building a conventional plant. The cleanroom, the utilities, the vibration and contamination control, everything is built to tolerances most contractors never encounter, and the schedule pressure is immense because every month of delay is enormously expensive. We work only with firms that have done this many times before." — Facilities and construction director, semiconductor manufacturer
"The single biggest constraint is skilled labor. In the hottest markets we are competing for the same specialized trades as every other fab project, and workforce availability, as much as permitting or materials, determines how fast we can actually build. Solving the labor pipeline is as important as any incentive." — Project executive, fab construction contractor
Analyst perspective
The U.S. semiconductor fab construction market is the physical embodiment of a national industrial policy, and in our view it is one of the most significant industrial construction booms the country has seen in decades. The CHIPS and Science Act did something rare: it turned a strategic ambition, to bring advanced chipmaking back to American soil, into hundreds of billions of dollars of concrete, steel, and cleanroom, concentrated in a handful of states over a compressed period. Our assessment is that the near-term market is extraordinarily strong but uneven, as flagship projects advance, pause, and rephase in response to demand, policy, and execution challenges, and the headline investment figures should be read as multi-year pipelines rather than steady annual spend. Two structural realities will shape the decade. First, this is among the most specialized construction on earth, and the advantage lies with the small group of engineering and construction firms with genuine fab experience, not with general contractors. Second, the binding constraint is not money but people, the skilled-labor pipeline will determine how much of the announced investment actually gets built and how fast. We expect a historically high but cyclical market, with a near-term peak, a broadening into advanced packaging and the wider ecosystem, and sustained demand as the United States commits to a larger, permanent domestic semiconductor manufacturing base.
Geographic analysis
Arizona Semiconductor Fab Construction Market
Arizona is the largest state market for semiconductor fab construction driven by the concentration of major projects in the Phoenix metropolitan area. TSMC is building a campus of three greenfield leading-edge fabs in north Phoenix, backed by a planned investment of more than USD 65 billion , and Intel is expanding its Ocotillo campus in Chandler with new fabs, while Amkor is planning a major advanced packaging facility in the state. This concentration of leading-edge wafer fabrication and advanced packaging construction, supported by a growing ecosystem of suppliers and a large construction workforce, makes Arizona the center of U.S. fab construction. The scale of activity has strained local skilled-labor markets, and the state's role as the leading hub for semiconductor construction is expected to continue through the forecast period.
Texas Semiconductor Fab Construction Market
Texas is a leading state market anchored by major projects from Samsung and Texas Instruments. Samsung is building an advanced fab in Taylor, Texas, part of a large planned investment in the state, while Texas Instruments is constructing multiple fabs in Sherman, Texas, as part of an investment of around USD 30 billion . The state's established semiconductor presence, business environment, and workforce support large-scale fab construction, and the concentration of leading-edge and analog manufacturing investment makes Texas one of the largest and most active state markets. Continued investment by these and other manufacturers is expected to sustain strong construction demand in Texas.
Ohio Semiconductor Fab Construction Market
Ohio is a major and strategically significant state market anchored by Intel's large new campus. Intel is building new leading-edge fabs in New Albany, near Columbus, in what the company has described as a potential mega-site, with Bechtel serving as lead contractor for the initial fabs. The project represents one of the largest greenfield semiconductor construction efforts in the country and is central to the effort to expand advanced manufacturing beyond established hubs. Although the project has been subject to schedule adjustments, it anchors Ohio as an important and growing center of fab construction, supported by workforce development and infrastructure investment, and positions the state as a significant long-term market.
New York Semiconductor Fab Construction Market
New York is a major state market anchored by Micron's large memory project and GlobalFoundries. Micron is developing a major memory manufacturing campus in Clay, near Syracuse, with plans for investment of up to USD 100 billion over roughly two decades, one of the largest planned private investments in U.S. history, while GlobalFoundries operates and invests in its facility in Malta, New York. These projects, supported by state incentives and workforce initiatives, make New York a significant and growing center of fab construction, particularly for memory. The scale of the Micron project positions New York as one of the most important long-term state markets.
Oregon, Idaho, New Mexico, and Other States Semiconductor Fab Construction Market
Oregon Idaho, New Mexico, and other states account for a significant share of the market. Oregon hosts Intel's largest and most advanced research and manufacturing campus in Hillsboro, which continues to see major investment, while Idaho is home to Micron's Boise campus, where the company is building new leading-edge memory manufacturing. New Mexico hosts Intel's Rio Rancho campus, expanded for advanced packaging, and other states, including Indiana, where SK hynix is building an advanced packaging facility, and Utah, where Texas Instruments is investing, are growing centers of activity. These established and emerging hubs, spread across the country, broaden the geography of fab construction and contribute significantly to the national market.
Competitive landscape
The U.S. semiconductor fab construction market is served by a specialized group of engineering, construction, and cleanroom firms with deep semiconductor expertise, alongside the chipmakers that sponsor projects. Competition centers on a small number of firms capable of delivering the complex engineering, construction, cleanroom, and process-utility systems that fabs require, given the extreme technical demands and schedule pressure of these projects. Participants compete on semiconductor construction experience and track record, engineering and cleanroom capability, ability to deliver at scale and on schedule, workforce and subcontractor networks, and relationships with major chipmakers. The specialized nature of fab construction creates high barriers to entry and concentrates the market among experienced firms.
A key competitive dynamic is the intense demand for a limited pool of firms and skilled labor capable of delivering fab construction, and the resulting importance of experience, capacity, and workforce. Leading firms including Bechtel, which is building Intel's Ohio fabs, Exyte, a specialist in semiconductor fab and cleanroom construction, Jacobs, Hoffman Construction, and DPR Construction, which have delivered major fab projects, and Sundt, along with engineering and specialty firms, compete for the large projects, often alongside international firms such as CTCI and United Integrated Services on projects like TSMC Arizona. Investment in workforce development, capacity, and semiconductor expertise is central to competition, and the ability to deliver these highly complex projects on schedule and at scale is decisive.
Sustainability impact
Managing Water Use and Reuse in Fabs
Water stewardship is one of the most material sustainability issues in fab construction, because a single large fab can use millions of gallons of ultrapure water per day. Fab construction increasingly incorporates advanced water recycling and reuse systems, and companies such as TSMC and Intel have set high water-reclamation targets for their U.S. sites, designing facilities to recycle a large share of process water.
By designing and building fabs with advanced water recycling, reclamation, and treatment infrastructure, the industry reduces the strain on local water resources, a critical consideration in water-stressed states such as Arizona, and improves the long-term sustainability of semiconductor manufacturing.
Reducing Energy Use and Emissions
Fabs are extraordinarily energy-intensive, and the way they are designed and built largely determines their lifetime energy use and emissions. Fab construction increasingly incorporates energy-efficient systems, on-site and procured renewable energy, and abatement systems for process emissions, with major chipmakers committing to renewable electricity and net-zero goals for their U.S. operations.
By building more energy-efficient fabs and integrating renewable energy and emissions abatement from the design stage, the industry reduces the substantial energy use and greenhouse gas emissions associated with semiconductor manufacturing, supporting decarbonization commitments.
Supporting Workforce and Community Development
The fab construction boom is creating over 125,000 jobs across more than 20 states, making workforce and community development a central sustainability and social impact. Fab projects are driving major investment in workforce training, apprenticeships, and partnerships with community colleges and universities to build the skilled-labor pipeline that both construction and fab operation require.
By investing in workforce development and supporting the communities that host fabs, the industry creates high-quality jobs, builds durable skills, and contributes to regional economic development, distributing the benefits of the semiconductor buildout.
Advancing Sustainable Construction Practices
Because fab construction is so large in scale, the construction process itself carries a significant environmental footprint that sustainable practices can materially reduce. Contractors are adopting sustainable construction practices, including efficient material use, waste reduction, low-carbon materials, and increasingly prefabrication and modular construction, which improve efficiency and reduce waste and emissions on site.
By adopting sustainable and efficient construction methods, the industry reduces the environmental impact of building fabs, improves safety and productivity, and supports the responsible delivery of the largest industrial construction program in recent U.S. history.
Table of contents
14 chapters · 110 pages · click to expandFrequently asked questions
The U.S. semiconductor fab construction market was valued at USD 28 billion in 2025 and is projected to reach USD 59 billion by 2036, at a CAGR of 7.0% from 2026 to 2036, from a historically high base. The estimate reflects the engineering, construction, cleanroom, and facility-systems spending on building and expanding fabs and advanced packaging facilities, excluding process equipment.