For most of the past three decades, the global semiconductor equipment industry was the exclusive domain of a handful of Western and Japanese giants: ASML, Applied Materials, Lam Research, Tokyo Electron, and KLA. These companies made the machines that made the chips — and their near-total dominance over the tools of chipmaking was considered one of the most durable moats in all of technology. Then China got serious.
The story of China’s semiconductor equipment industry is one of the most consequential industrial development narratives of the 2020s. It is a story about sanctions, substitution, state capital, and the determined effort to master one of the most technically demanding manufacturing disciplines in human history. For anyone in global technology supply chains, procurement, or trade policy, understanding where China’s domestic toolmakers stand today — and where they are heading — is no longer optional.
Why Equipment Matters More Than Chips
The public debate about China’s semiconductor ambitions has focused heavily on chip fabrication — specifically on SMIC’s ability to manufacture advanced nodes and whether China can replicate TSMC. But insiders understand that the deeper bottleneck is equipment. You cannot build a 7-nanometer logic chip, a DRAM cell, or a NAND flash layer without machines of extraordinary precision. Wafer scanners, deposition tools, etchers, metrology systems — these are the physical infrastructure of the semiconductor industry, and China has historically imported virtually all of them.
When the United States imposed export controls on advanced semiconductor equipment in October 2022 — expanded significantly in October 2023 and again in 2024 — it effectively targeted this upstream layer. The controls restricted not just equipment sales to specific entities but entire categories of tools, and they pressured allied countries to align. The Netherlands tightened ASML’s export licenses for EUV and certain DUV systems. Japan imposed controls on 23 categories of chipmaking equipment. The logic was straightforward: if China cannot buy the machines, it cannot build the factories.
But Beijing had anticipated this moment. The “Made in China 2025” industrial policy, launched in 2015, explicitly targeted semiconductor equipment as a critical domestic development priority. By the time the full weight of allied export controls arrived, China had been investing in domestic equipment development for nearly a decade.
The Domestic Champions: NAURA, AMEC, and the Tier-One Toolmakers
China’s semiconductor equipment sector is anchored by a small group of domestically listed companies that have scaled rapidly under state and commercial support.
NAURA Technology Group
NAURA Technology Group (北方华创, listed on the Shenzhen Stock Exchange as 002371) is the closest thing China has to a broad-based semiconductor equipment champion. The Beijing-headquartered company makes etch systems, deposition tools (CVD and PVD), thermal processing equipment, and cleaning systems. Its products are used across logic, memory, and specialty semiconductor manufacturing.
In 2023, NAURA reported revenue of approximately RMB 19.9 billion (roughly $2.8 billion), representing year-on-year growth of around 52%. That pace of growth reflects the urgency with which Chinese chip fabs — SMIC, CXMT, YMTC, and others — are localizing their equipment procurement. NAURA’s order backlog has grown substantially as domestic fabs seek to reduce exposure to potential supply disruptions. By 2025, the company had secured significant tool qualifications at multiple Chinese fabs for processes previously handled exclusively by Lam Research and Applied Materials.
Advanced Micro-Fabrication Equipment Inc. (AMEC)
AMEC (中微公司, listed on the Shanghai STAR Market as 688012) specializes in plasma etch and chemical vapor deposition equipment. Founded in 2004 by Dr. Gerald Yin, a former Applied Materials executive, AMEC has been China’s most technically credible etch equipment supplier for over a decade. Its dielectric etch tools are qualified at TSMC (for mature nodes) as well as at major Chinese fabs.
AMEC’s 2023 revenue reached approximately RMB 3.5 billion ($490 million), modest by global standards but significant given that etch is one of the most technically demanding equipment categories. The company has disclosed active development of atomic layer etch (ALE) systems and high-aspect-ratio etch tools suited for advanced 3D NAND and logic production — areas where imported tools remain unavailable due to export controls.
Shanghai Micro Electronics Equipment (SMEE)
No discussion of China’s semiconductor equipment gap is complete without addressing lithography — the single most critical and most controlled segment. SMEE (上海微电子装备) is China’s primary domestic lithography developer, and it remains the most visible symbol of both China’s ambition and the distance yet to travel.
SMEE’s most commercially deployed system, the SSA/800, is an immersion DUV scanner capable of 90-nanometer production — roughly two generations behind ASML’s mainstream DUV tools, which can reach 28nm and below. SMEE has been working on a 28nm-capable machine for several years, with Chinese industry observers and state media periodically citing imminent commercialization. Independent verification of full qualification at production scale has been limited.
The gap in lithography is not simply one of engineering capability — it reflects the extraordinary difficulty of building precision optical systems, immersion fluids, and stage control mechanisms that must operate at nanometer-level tolerances. ASML’s EUV monopoly rests on a technology stack that took over 20 years and contributions from hundreds of suppliers across multiple countries. Replicating it domestically is a generational project.
The Broader Ecosystem: Metrology, CMP, and Process Control
Semiconductor manufacturing requires far more than scanners and etch tools. Chemical mechanical planarization (CMP), wafer inspection, metrology, ion implantation, and thermal processing each represent distinct equipment categories with their own global incumbents — and their own Chinese challengers.
Huahai Qingke (华海清科) has emerged as China’s leading CMP equipment supplier, qualifying its tools at SMIC and CXMT for memory and logic applications. ACM Research, while technically a US-listed company with Chinese founders, has built significant single-wafer cleaning tool business in China. Precision Tsugami, Kingsemi, and a dozen other smaller players are addressing process niches that were historically served entirely by import.
The China Semiconductor Industry Association (中国半导体行业协会, CSIA) estimated in its 2024 annual report that domestic equipment suppliers collectively captured approximately 20 to 25 percent of the Chinese semiconductor equipment market in that year, up from roughly 10 percent in 2019. The remaining 75 to 80 percent continues to be served by existing inventories of foreign tools, legacy equipment exempt from controls, and ongoing purchases of mature-node equipment not subject to restriction. For reference, China’s semiconductor equipment market was valued at over $30 billion in 2023, making it the world’s largest single national market by expenditure.
The Role of State Capital and Industrial Policy
China’s semiconductor equipment buildout is not a market-only phenomenon. The National Integrated Circuit Industry Investment Fund — known informally as the “Big Fund” (大基金) — has been the primary policy vehicle for channeling state capital into semiconductor development since its founding in 2014. The Big Fund’s first phase deployed approximately RMB 138 billion ($19 billion) between 2014 and 2019. Phase II raised roughly RMB 200 billion ($28 billion) beginning in 2019. A Phase III was announced in 2024, reportedly targeting RMB 344 billion ($47 billion), with equipment manufacturers identified as a primary investment focus.
Provincial and municipal governments have layered additional support on top of national investment. Beijing, Shanghai, and Shenzhen have all announced dedicated semiconductor equipment development funds and preferential procurement policies that require fab operators receiving state subsidies to prioritize domestic tools where available. This creates a captive market structure that reduces commercial risk for domestic toolmakers during the qualification phase — a model with historical precedent in South Korea’s development of Samsung and Hynix, and in Taiwan’s early support for TSMC.
As explored in our coverage of SMIC and China’s semiconductor fabrication ambitions, the domestic fab ecosystem is the primary customer for this equipment buildout. The fabs and toolmakers are developing in parallel, with each requiring the other to advance.
What Export Controls Have and Have Not Achieved
Western policymakers have debated the effectiveness of semiconductor export controls with increasing rigor as the restrictions have been extended and tightened. The evidence is genuinely mixed.
On one hand, the controls have meaningfully constrained China’s access to the most advanced tools. No Chinese fab has publicly demonstrated high-volume EUV-dependent production. Advanced sub-5nm logic manufacturing at commercial scale has not been documented. The physical limitation on lithography tools represents a genuine ceiling that cannot be engineered around purely through software or process innovation. As detailed in our analysis of Huawei’s journey through the US sanctions gauntlet, the impact of technology restrictions on China’s most technically ambitious companies has been severe in specific areas.
On the other hand, the controls have accelerated exactly the domestic development they sought to prevent. NAURA’s revenue has roughly tripled since the imposition of entity list restrictions began intensifying post-2019. Investment in domestic semiconductor equipment R&D has compounded at extraordinary rates. The human capital pipeline — engineers, physicists, and process specialists — has been growing since China began establishing semiconductor engineering programs at scale in the early 2010s. The restrictions have provided industrial policy designers in Beijing with exactly the justification needed to maintain exceptional levels of state investment: a credible external threat that demands domestic self-sufficiency.
This dynamic is not unique to semiconductors. As discussed in our post on how Shenzhen evolved from assembly hub to innovation center, China has consistently responded to perceived technology ceilings by building domestic capability rather than accepting permanent dependence.
Implications for Western Equipment Companies
The consequences for Applied Materials, Lam Research, KLA, and their peers are already measurable. China historically accounted for 30 to 35 percent of revenues for major US semiconductor equipment companies. Export restrictions have forced a painful recalibration. AMAT, Lam, and KLA all reported significant year-on-year China revenue declines following the October 2022 and October 2023 control expansions, partially offset by strong demand in other markets driven by US CHIPS Act investment and advanced packaging expansion in Southeast Asia.
The medium-term risk is market displacement: if Chinese fabs progressively qualify domestic tools for mature-node production, the addressable market for foreign equipment in China will shrink structurally, not just cyclically. Even if controls are eventually relaxed — a scenario with significant political uncertainty in both Washington and Beijing — the domestic Chinese equipment industry that emerges will not un-develop itself.
For Western companies still selling into China on mature-node equipment categories, the strategic question is how long qualification windows remain open and whether deep technology partnership can offer mutual value that pure substitution cannot. As shown by the extended lifespan of US-China cooperation in ZTE’s turbulent journey through the sanctions era, technology interdependence creates leverage on both sides — but only for as long as each party depends on the other.
The Timeline: Realistic Assessment
Industry analysts generally converge on a nuanced picture. For mature-node equipment — tools needed to manufacture chips at 28nm and above — China’s domestic suppliers are on track to achieve meaningful self-sufficiency within three to five years under sustained investment. For leading-edge equipment, particularly EUV lithography and the associated optical and materials stack, genuine domestic capability remains a decade or more away, barring either unexpected technical breakthroughs or a significant relaxation of allied export alignment.
The US Department of Commerce’s Bureau of Industry and Security (BIS) has made clear in its public guidance and Federal Register notices that maintaining technology leadership in semiconductor equipment is a core national security objective. Its export control framework, available at BIS’s Export Administration Regulations portal, continues to evolve with additional entity listings and control parameter updates.
On the Chinese side, the Ministry of Industry and Information Technology (MIIT) publishes its national semiconductor development planning through its official guidance portal. MIIT’s Electronics Department policy releases provide the authoritative official framework for understanding Beijing’s strategic priorities across integrated circuit development, including equipment and materials localization targets.
The Bilateral Lens
China’s semiconductor equipment ambitions do not require a zero-sum framing. The global chip industry is too interdependent, and the demand for semiconductors too universal, for either side to benefit from permanent technological balkanization. What the equipment story actually illustrates is a structural transition: from a world in which China was a consumer of the global semiconductor supply chain to one in which it is increasingly a producer within it.
For foreign companies — equipment makers, chip designers, materials suppliers, and the industrial customers who depend on affordable, reliable chips — understanding the Chinese equipment industry is not about threat assessment alone. It is about understanding where the next generation of manufacturing capability will be built, where process recipes will be developed, and where the engineering talent that will shape global chipmaking for the next 20 years is being trained. Those who engage with that reality analytically — rather than through the lens of either uncritical admiration or reflexive suspicion — will be better positioned to navigate whatever the next decade brings.