53.4%! U.S. Semiconductor Share Returns to 1984 High.
Today, the Semiconductor Industry Association (SIA) released the "State of the U.S. Semiconductor Industry 2026" report. Semiconductors are the central nervous system of the digital world and the cornerstone of the AI revolution. In 2026, chip technology is advancing at an unprecedented pace.
The report highlights several key points:
First, the global chip market surpasses $1.5 trillion for the first time. Global semiconductor sales reached $795.6 billion in 2025, far exceeding early-year expectations and setting a historical record. WSTS forecasts that global chip sales will break the $1.5 trillion mark for the first time in 2026, surging 90% compared to 2025.
Second, AI becomes the strongest demand engine. A single AI server rack contains over 4,500 packaged chips, accounting for 95% of the entire rack's value; a hyperscale data center houses more than 5,000 servers. The SIA-Deloitte report forecasts that by 2028, global governments and industries will cumulatively invest over $4 trillion in new data center infrastructure, of which $2.8 trillion will be spent on semiconductors; annual semiconductor revenue deployed in AI data centers is expected to break $1.2 trillion in 2028.
Third, the China region grows rapidly. Sales in the China region grew 17.9% year-over-year in 2025. On the R&D front, SIA cites OECD data indicating that the combined R&D expenditure of China's industry and government has surpassed that of the U.S., particularly in the later stages of development. Meanwhile, the report points out that China's export restrictions on critical minerals such as gallium, germanium, and indium phosphide, as well as rare earth elements and magnets, are impacting global chip manufacturers.
To help readers fully understand the SIA report, Semiconductor Industry Insight has specially translated the full text of the report below for our readers.
Introduction
Semiconductors are the central nervous system of our digital world and the cornerstone of the AI revolution.
Entering 2026, chip technology is advancing at an unprecedented pace—backed by cutting-edge semiconductor research, design, and manufacturing processes. The transistors integrated on modern semiconductors are now so small that thousands can fit side by side on the cross-section of a single human hair. As technology continues to evolve, semiconductors are bringing higher efficiency and stronger performance to the entire economy, and unleashing innovations that will define U.S. economic power, national security, and global competitiveness in the coming decades.
Over the past few years, semiconductor demand has surged dramatically. This year, global chip sales are expected to break the $1.5 trillion mark for the first time.
Semiconductors are the enabling technology for Artificial Intelligence (AI)—which is reshaping our economy and society, making all industries more productive and innovative, and driving major scientific breakthroughs. The entire semiconductor technology stack, from advanced logic and memory to analog/foundation chips, supports the operation of AI. A single AI server rack contains over 4,500 packaged chips, accounting for 95% of the entire rack's value. A hyperscale data center houses more than 5,000 servers, collectively creating a historic scale of demand for semiconductor technology.
Beyond AI, chips also drive numerous downstream sectors such as communications, transportation, consumer electronics, and industrial applications.
Given the growth of the semiconductor industry—and its critical strategic significance to economic and national security—policymakers should advance initiatives to consolidate U.S. leadership in chip technology. Advancing sound tax, R&D, talent, trade, and national security policies is critical to strengthening U.S. semiconductor capabilities, fortifying supply chains, and enabling next-generation technological breakthroughs.
This report provides a panoramic snapshot of the semiconductor industry in 2026: the progress being made, the challenges ahead, and the urgency of maintaining U.S. leadership in this foundational technology sector.
Part 1: Global Semiconductor Market
1.1 Global Semiconductor Sales
Global semiconductor sales reached $795.6 billion in 2025, far exceeding early-year expectations and setting an industry historical record. The World Semiconductor Trade Statistics (WSTS) forecasts that global semiconductor sales will surge to $1.5 trillion in 2026—the first time industry sales have crossed the $1 trillion threshold, representing a 90% increase over 2025.
Chips powering AI and other advanced applications were the strongest demand engine for semiconductor sales in 2025, a trend expected to continue in the coming years.
Logic chip sales totaled $299.5 billion in 2025, a 38.8% year-over-year increase, making it the largest semiconductor category by sales. Memory products ranked second at $230 billion, up 39.0% from 2024. Foundation chip sales declined 5.2% from the 2022 peak and remain suppressed; however, foundation chip unit shipments saw a slight year-over-year increase of 6.3%.
By region, annual sales in 2025 grew year-over-year as follows: Asia Pacific/Rest of World +45.4%, Americas +31.4%, China +17.9%, Europe +6.7%; Japan -4.3%.
1.2 U.S. Market Share
Since the late 1990s, U.S.-headquartered companies have consistently ranked at the top of global chip sales. In 2025, U.S. industry sales reached $425 billion, accounting for 53.4% of total global sales—the highest share since 1984.
U.S. companies continue to maintain top-tier competitiveness across the entire innovation chain, including R&D, chip design, and advanced manufacturing. This leadership creates a virtuous cycle: success in global sales enables massive reinvestment in R&D, which in turn drives next-generation technological breakthroughs, further consolidating U.S. semiconductor leadership.
1.3 Demand Drivers
Innovation in the semiconductor industry is giving rise to future transformative technologies. In turn, the demand for numerous innovative technologies such as AI, 5G/6G communications, quantum computing, industrial automation, robotics, medical devices, and advanced defense systems continues to drive up the need for chip technology.
The semiconductor sales boom in 2025 was primarily driven by AI infrastructure construction and other computing endpoints such as PCs and workstations. In terms of revenue, the end-market share for PC/computers and AI applications both grew by over 10% year-over-year, signaling strong growth potential in the future.
According to a recent joint report by SIA and Deloitte, to meet the new demands of global AI applications, governments and industries will cumulatively invest over $4 trillion in new data center infrastructure by 2028, of which $2.8 trillion will be spent on semiconductors. Furthermore, annual semiconductor revenue deployed in AI data centers is expected to break $1.2 trillion by 2028—nearly a 10-fold increase in four years.
Although semiconductor sales in end markets such as communications, automotive, consumer electronics, industrial applications, and government all grew in 2025, their relative share of total sales declined due to the explosive growth in semiconductor demand in the AI sector.
1.4 AI is Built on Semiconductors
Without semiconductors, there is no AI. Today's AI systems are built upon decades of innovation across the entire semiconductor ecosystem. As chip technology continues to advance, AI will become more powerful, more energy-efficient, and more cost-effective. In turn, more powerful AI will help improve chip design, optimize manufacturing processes, and further drive demand for various semiconductors that support AI.
Chips provide the underlying hardware foundation for modern AI systems and account for a significant proportion of the overall value of modern AI servers. According to a recent joint report by SIA and Deloitte, within a modern data center, a single AI server rack contains over 4,500 packaged chips, covering all chip technology categories, including:
- Advanced logic chips, such as AI accelerators, ASICs (Application-Specific Integrated Circuits), FPGAs (Field-Programmable Gate Arrays), CPUs (Central Processing Units), DPUs (Data Processing Units), and networking chips; memory chips, such as HBM (High Bandwidth Memory), DRAM (Dynamic Random-Access Memory), SRAM (Static Random-Access Memory), and NAND (Non-Volatile Flash Memory); analog/foundation chips, such as PMICs (Power Management ICs), transceivers, controllers, and sensors—these chips ensure efficient power delivery and seamless interconnects within and across AI server systems.
Semiconductors account for over 95% of the content value in a leading AI server rack, and over 50% of the total capital expenditure for the construction and operation of AI data centers (the exact proportion depends on the data center's specific focus, ranging between 50% and 70%).
As AI continues to scale, the ability to secure, design, and integrate the semiconductor components that make up AI infrastructure will be just as critical as computing power itself.
To advance sustained U.S. leadership in semiconductor and AI technologies, policymakers should adopt policies that encourage investment, drive innovation, and facilitate trade, thereby strengthening semiconductor research, design, and manufacturing.
Part 2: U.S. Semiconductor Ecosystem
2.1 The U.S. Semiconductor Ecosystem Landscape
The U.S. semiconductor industry is one of the most advanced manufacturing and R&D industries in the world.
The semiconductor ecosystem is widely distributed across the U.S., present in the vast majority of states. From early-stage research and design to manufacturing, equipment, and materials, every link in the value chain plays a critical role in ensuring the U.S. can develop, produce, and deliver semiconductors that meet the growing demands of downstream customers.
Maintaining and expanding this ecosystem in the U.S.—while simultaneously working to strengthen complementary supply chains in allied and partner nations—is critical to sustaining U.S. technological leadership, enhancing supply chain resilience, and supporting economic and national security.
As companies expand semiconductor capacity and related supply chain scale in the U.S., the increase in domestic chip production will strengthen the U.S. economy, enhance supply chain resilience, and fortify national security. A stronger U.S. chip industry can:
- Support high-paying jobs; drive broader investment in the technology and manufacturing ecosystems; ensure a reliable supply of semiconductors across sectors ranging from consumer electronics and automotive to AI systems and critical infrastructure; mitigate vulnerabilities caused by supply chain disruptions and geopolitical uncertainties, while complementing globally interconnected industrial chains.
These corporate investments will collectively ensure that the U.S. remains the global leader in semiconductor innovation and advanced manufacturing for decades to come.
2.2 U.S. Semiconductor R&D
The semiconductor industry is one of the most R&D-intensive industries globally. U.S. semiconductor companies spent $76.8 billion on R&D in 2025, a 10.3% increase from $69.6 billion in 2024.
One of the industry's largest demand engines: AI data center chips, which place higher demands on accelerator performance, tighter integration of logic and memory chips through Advanced Packaging, and more robust energy-efficiency solutions.
Edge AI is another rapidly emerging sub-sector, which involves running machine learning and AI algorithms directly on local hardware devices. It requires a variety of low-power and communication chips to meet virtually endless application scenarios—such as fitness trackers, smart homes, autonomous driving, and Advanced Driver Assistance Systems (ADAS).
This year, the CHIPS for America R&D Office at the U.S. Department of Commerce issued a "Broad Agency Announcement" (BAA), targeting ambitious, large-scale commercial R&D projects to support domestic U.S. companies in building world-leading computing capabilities across the industry, helping them leapfrog global competition and secure lasting leadership for the U.S.
As demand continues to grow in both emerging and established industry segments, R&D will become increasingly critical, requiring companies to keep pace with innovation and maintain competitiveness. In fact, while the semiconductor industry has maintained a product iteration cycle of approximately two years for many years, companies are now delivering innovations at an unprecedented pace to meet customer needs.
2.3 Domestic U.S. Semiconductor Talent
The U.S. semiconductor industry directly provides approximately 342,000 jobs and indirectly supports nearly 2 million U.S. jobs.
A highly skilled domestic workforce is key to maintaining U.S. semiconductor leadership.
Today, the chip industry directly employs approximately 342,000 people, covering chip design, Electronic Design Automation (EDA), semiconductor manufacturing, and equipment production. Semiconductors also support over 300 downstream industries. According to an analysis by the Bureau of Industry and Security (BIS) at the U.S. Department of Commerce, average compensation in the semiconductor industry is over 30% higher than in other comparable roles.
As the U.S. semiconductor ecosystem continues to expand, the number of qualified workers needed is also increasing. According to a 2024 study by SIA and Oxford Economics, by 2030, the U.S. semiconductor industry will face a shortage of approximately 67,000 technicians, computer scientists, and engineers, with the shortage for such roles across the entire U.S. economy reaching as high as 1.4 million.
A supply of workers with the necessary skills is a prerequisite for the success of the domestic semiconductor industry, and expanding the talent pool is critical to the industry's continued success. To address this challenge, government and industry should: work together to build on existing talent development efforts; accelerate and expand the talent pipeline for STEM graduates in the U.S.; and advance targeted immigration reforms to enable the semiconductor industry to attract and retain talent.
A competitive domestic workforce and resilient manufacturing capabilities are the two pillars of U.S. semiconductor leadership.
2.4 Global R&D Landscape: U.S. Faces Catch-up Pressure
Although the U.S. has long been the undisputed center of global innovation, governments worldwide are deploying a package of aggressive policies to mobilize public and private resources.
For instance, the latest OECD data on Gross Domestic Expenditure on R&D (GERD) shows that the combined R&D expenditure of China's industry and government has surpassed that of the U.S.—particularly in later-stage development. The U.S. must redouble its efforts to reassert its leadership in advanced technology development.
Part 3: Semiconductor Supply Chain
3.1 Semiconductor Trade—Key to U.S. Technological Leadership
The success of the U.S. semiconductor industry is highly dependent on international sales. In 2025, over 70% of the revenue for U.S.-headquartered semiconductor companies came from overseas sales; more than 85% of all semiconductors sold globally were shipped outside the U.S. As domestic chip manufacturing capacity continues to be built in the U.S., it is critical to ensure that semiconductor production costs in the U.S. remain controllable, so that U.S. companies can win in the global market competition. The U.S. must advance trade negotiations and other economic measures to expand downstream demand and broaden the global market base for U.S. chips.
Total U.S. semiconductor exports reached $57.8 billion in 2025, ranking 6th among U.S. export categories, with the top 5 being aircraft, refined oil, crude oil, non-ferrous metals, and natural gas. The U.S. semiconductor industry maintains a trade surplus with most trading partners, including China.
Looking ahead, U.S. semiconductor companies are well-positioned for robust growth, backed by expanding domestic capacity and significant investments across the entire ecosystem. As chip companies continue to invest in the U.S., government policies that facilitate the sale of their products to overseas markets will be critical.
3.2 Supply Chain Challenges
The semiconductor supply chain is tightly intertwined and extremely complex on a global scale. Multiple disruptions in critical upstream segments in recent years have posed challenges to both the U.S. and global semiconductor industries.
In recent years, the global semiconductor supply chain has faced multiple shocks due to natural disasters, regional conflicts, supply-demand imbalances, and trade restrictions on critical materials and components. As U.S. companies invest in new domestic manufacturing capacity, supply disruptions in critical upstream segments could hinder these efforts and delay project timelines.
For example, shipping disruptions in the Strait of Hormuz are affecting the supply of naphtha (an important source of high-purity chemicals in semiconductor manufacturing) and helium required for lithography processes.
Similarly, China's export restrictions on critical minerals—including gallium, germanium, indium phosphide, and a range of rare earth elements and magnets—are impacting global chip manufacturers. Furthermore, expectations of accelerating demand growth have led to supply-demand imbalances in upstream materials and manufacturing equipment, triggering unexpected shortages.
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