Between 2020 and 2021, U.S. R&D performance by the semiconductor manufacturing industry increased 9.8% in current U.S. dollars to $47.4 billion…R&D by the semiconductor machinery manufacturing industry reached $5.3 billion in 2021, up 11.2% from 2020. In 2021, experimental development accounted for the largest share of domestic R&D performance by both the semiconductor manufacturing and semiconductor machinery manufacturing sectors (90% and 75%, respectively). U.S. semiconductor manufacturing companies invested $5.0 billion in assets such as buildings, equipment, and software to support their domestic R&D activities in 2021.

Currently, US semiconductor companies invest about $40B annually into R&D. These investments have resulted in steady performance improvements, known as Moore’s Law, for decades.

The semiconductor industry annually invests about one-fifth of its revenue into R&D, with U.S.-headquartered companies spending close to $60.2 billion on R&D in 2023. The CHIPS and Science Act provides funding of up to $11 billion for four integrated entities, including the National Semiconductor Technology Center (NSTC), National Advanced Packaging Manufacturing Program (NAPMP), Manufacturing USA Institute and CHIPS Metrology to support chips R&D.

Constructing new fabs cost approximately US$200 million in 1983. In 2022, the average cost of building a fab was estimated at US$10 billion. For leading-edge fabs at advanced nodes, total project costs can be substantially higher because of the price of state‑of‑the‑art lithography and other process tools, as well as specialized facilities and labor.

The U.S. semiconductor industry already invests heavily in its own research and development to stay competitive and maintain its technology leadership. Nearly one-fifth of U.S. semiconductor industry revenue is invested in R&D, amounting to approximately $36 billion in 2017, triple the amount invested 20 years ago. Continued semiconductor innovation will require research in new materials, designs, and architectures through a whole-of-government approach and public/private partnerships…We urge Congress and the Administration to…triple U.S. investments in semiconductor research across federal scientific agencies from approximately $1.5 billion to $5 billion annually.

Our analysis has led us to two fundamental conclusions. First, the cost of building and operating these fabs has risen significantly. Taking the major cost drivers and underlying assumptions into consideration, we concluded that a fab completed in 2026 would carry a ten‑year TCO of $35 billion to $43 billion—33% to 66% higher than today’s costs.

Today, 50 years later a fabrication facility for advanced semiconductor chips can cost between $20–30 billion. In the 1980s a piece of photolithography equipment…could cost about $450,000. Today, for the most advanced chips, the latest lithography equipment may cost $400 million. The CHIPS Act…committed $52 billion spread over five years to support investment in research and development as well as additional capital investment in the semiconductor industry…TSMC in Taiwan…spends nearly $40 billion on capital equipment and research and development a year by themselves.

The Advanced Manufacturing Investment Credit (Section 48D) and manufacturing grant incentives have sparked substantial investments in the U.S. In fact, companies in the semiconductor ecosystem have announced over 140 projects across 30 states—totaling more than $645.3 billion dollars in private investments—since 2020. Thus far, the Department of Commerce has announced $33.0787 billion in grant awards and up to $7.15 billion in loans to 35 companies across 52 projects.

Although a one-time significant investment can establish a fab with an advanced technology node, within 3 years, another new, more expensive fab is needed to keep pace with process advances. This reflects the continuing need for repeated high investment to remain at the leading edge.

Today, a modern fab can cost $10–$20 billion or more. Intel is building a pair of fabs in Arizona which are projected to cost $15 billion apiece, and Samsung’s fab in Taylor, Texas is projected to cost $25 billion. Roughly 70–80% of the cost of a new fab will be the process tools that go in it. For modern semiconductor fabs, each new process node increases fab cost by about 30%.

To meet the increasing demand, semiconductor companies are projected to allocate about $185 billion to capital expenditures in 2025, according to WSTS. Capital expenditures (CapEx) in 2024 saw a modest 5% increase, reaching $180 billion. Additionally, more than a dozen R&D centers were established, focusing on crucial areas such as 12-inch wafers, extreme ultraviolet (EUV) lithography, and advanced packaging—key drivers of innovation in chip manufacturing. These investments have been bolstered by government support, including funding from the US government’s CHIPS Act.

Announced in 2020, TSMC’s new semiconductor fabrication plant, Fab 21, is set to produce 4 and 5nm chips at a capacity of roughly 20,000 WSPM (wafer starts per month). This $40‑billion facility will become only the third semiconductor fabrication plant TSMC has built outside of Taiwan. In 2021, Samsung announced that it would be breaking ground on a new semiconductor fabrication plant in Taylor, Texas… and funneling around $17 billion into construction, equipment, machinery, and improvements to the space. In addition to its new plants in Arizona, Intel has also begun construction on two semiconductor fabs just outside of Columbus, Ohio… The factories, which are estimated to cost around $20 billion… The plants are expected to be completed in 2025 and represent just the first phase of Intel’s multi‑year plan… (The total cost for the entire site is estimated to be in the neighborhood of $100 billion.)

Many estimates put the cost of a new fab building above $5 billion in most cases. With leading‑edge semiconductor fabs (3 nm and below) often costing $20 billion or more, the pressure to optimize every system is greater than ever. Fluid systems are a significant portion of the total construction cost and can materially affect the overall economics of the fab.

The 2026 global semiconductor industry outlook projects soaring sales…Industry capital spending (capex) is expected to remain very high, with leading chipmakers continuing multi‑billion‑dollar investments in advanced nodes, packaging, and new fabs. Building and ramping a state‑of‑the‑art fab can require years of planning and construction and tens of billions of dollars in investment, contributing to long lead times for expanding advanced manufacturing capacity.

TSMC’s $165 billion Phoenix development, first announced in 2020 with an initial $65 billion for three fabs and expanded by a further $100 billion in 2024, for a total of six fabs, aims for 2nm volume production by 2030. Intel… moving forward with $32 billion in new Fabs 52 and 62 in Chandler, Arizona, scheduled for completion in 2026 and 2027 to produce 2nm chips. Its $20 billion Ohio project, launched in 2022 and expected online in 2026–27, could eventually expand to $100 billion across eight fabs over the next decade.

Here’s the mind‑bender: building one advanced fab (think 3 nm nodes) can set you back $20 billion or more. Site & infrastructure can be ~$5B+, including 100+ acres and an ultra‑clean megastructure. Machines & systems are ~$10B+, with ASML EUV scanners costing around $300M each and fabs needing 10–20 of them. Human capital and training can exceed $1B. A single modern fab can cost over $20 billion, but it’s the price we pay for the chips that power our entire digital world.

The Advanced Semiconductor Materials Market is driven by increasing investments by top global technology companies in research and development. The top 2,500 firms spent more than USD 1.41 trillion in R&D alone in 2022. Companies in the ICT sector primarily led the trend, which includes semiconductor research…The massive injection of R&D funds is shooting developments on compound semiconductors, two-dimensional materials, and nanomaterials…The main drivers of the Advanced Semiconductor Materials Market are a large investment in R&D and an increasingly larger talent pool in the semiconductor industry.

CNBC got an exclusive tour of the $12 billion fab that will start production in 2024… Samsung is building a $17 billion fab in Texas… Building a fab today takes at least two years and $10 billion. Intel… announced it's spending $20 billion to build two huge new fabs in Chandler, Arizona. It broke ground in September this year with plans to output chips for PCs and data centers by 2024.

Global competitors are investing in semiconductor research, design, and manufacturing. A $50 billion government investment is likely to prompt corporate spending that would take the U.S. share of global production to as much as 14 percent from about 10 percent now. The CHIPS and Science Act provides $52 billion to fund semiconductor research, design, and manufacturing in the United States, reflecting the large scale of investment seen as necessary to compete in advanced chip production.

In the late 60s and early 70s, a semiconductor fabrication facility (or ‘fab’) cost on the order of $4 million (~$31 million in 2024 dollars). Today, a modern fab can cost $10–$20 billion or more. (There is a Moore’s Second Law, also known as Rock’s Law, which posits that the cost of a semiconductor fab doubles every four years.) The process for building up the structure of a microchip can be broken down into layering, patterning, doping, and heat‑treating, repeated many times, requiring extensive process development and optimization.

Passed in 2022, [the CHIPS and Science Act] is funneling over $52 billion into domestic chip production. The goal? Make America competitive again in tech manufacturing, and create thousands of new jobs in the process…Turns out, this industry is one of the fastest‑growing in the country. That’s not just hype—it’s backed by billions in investment, a growing demand for skilled workers, and a whole lot of opportunity…substantial investments already allocated to enhance production capabilities and technology development.

Constructing new fabs cost approximately US$200 million in 1983. In 2022, the average cost of building a fab was estimated at US$10 billion. This escalation reflects not only the capital for facilities and equipment but also years of accumulated R&D embodied in advanced process technologies and design rules that enable leading‑edge chip production.

This document lays out the CHIPS Program Office’s “Vision for Success” for both funding opportunities across three categories. It describes how CHIPS funding aims to catalyze private investment in facilities for semiconductor materials and manufacturing equipment, which typically require very large capital outlays and long development timelines. The program is designed to support projects that will take years to plan, build, and bring into full production, reflecting the time and investment needed to expand advanced semiconductor manufacturing capacity.

It cost 20 or $30 billion to open a new advanced foundry now. But also you need the technology. A modern three nanometer chip costs about 700 million. That's from scratch… And then each one after that costs a little bit less. But after that, then you’re just paying for the wafers.

The high capital expenditure required for fabs and equipment upgrades at sub-7nm nodes presents a significant barrier, especially for smaller players. Yield learning curves at these nodes are steep, with initial manufacturing yields often lower, impacting profitability and time-to-market.

100% of sub‑10nm logic in the world was made at TSMC in 2019. It’s likely that Samsung has caught up, but in terms of the leading edge, it’s… only a very small number of companies that operate there. The cost of 100K wafer starts should start to rise low‑ to mid‑single digits per chip at the leading edge, reflecting the increasing capital intensity of advanced nodes.

The projected cost for initiating a small‑scale pilot run of 7 nm technology is around $300 billion, while establishing extensive 3 nm production akin to TSMC could exceed $1 trillion. For instance, TSMC's Fab 18, dedicated to 3 nm chips, has already incurred expenses surpassing $40 billion in Taiwan. The entire ecosystem surrounding semiconductor manufacturing is easily upwards of $500 billion USD, and setting up a semiconductor fabrication plant is described as extraordinarily expensive.

Samsung delays $44 billion Texas chip fab — sources say completion halted because 'there are no customers'… Commenters note that TSMC fabs are full to capacity and that building at the leading edge now involves tens of billions of dollars in capital commitments before customer demand is certain.