Market Synopsis
The global EUV pellicle market size was USD 638.4 Million in 2025 and is expected to register a revenue CAGR of 14.4% during the forecast period. EUV pellicles are ultrathin membranes stretched over a rigid frame and mounted above an EUV photomask to intercept airborne particle contamination before it can land on the mask patterning surface. Without pellicle protection, a single 20-nanometre particle deposited on an EUV mask during repeated scanner exposure creates a printable defect that appears on every wafer exposed through that mask, requiring mask cleaning or replacement that interrupts production runs. EUV pellicles must transmit 13.5-nanometre EUV light at above 85 percent efficiency per pass, withstand sustained radiation flux from the plasma light source without degrading, and survive the thermal load of full-power EUV scanner operation without mechanical failure. The primary pellicle materials under development and commercialisation are silicon-based thin films, polysilicon membranes, and carbon nanotube network films. ASML, Mitsui Chemicals, and Shin-Etsu Chemical are the primary EUV pellicle developers, with ASML's own pellicle product being the first commercially deployed EUV pellicle for TSMC production use. The challenge of producing a free-standing membrane of 30 to 60 nanometre thickness across a 100 by 130-millimetre EUV mask frame without pinhole defects or stress-induced rupture represents one of the most demanding materials engineering requirements in semiconductor manufacturing.
The EUV pellicle market is driven by the transition to High-NA EUV lithography at Intel 14A and TSMC N2 nodes, where the tighter defect density requirements of leading-edge nodes make mask contamination protection more critical than at prior process generations, and by the increasing volume of EUV scanner installations globally that each require dedicated pellicle supply. TSMC began using ASML's EUV pellicle in production at its 5-nanometre node in 2021 after years of development, establishing the first commercial EUV pellicle revenue. The pellicle market is structurally small relative to EUV scanner revenue because each pellicle covers a single mask and masks are reused across thousands of wafer exposures, but the pellicle replacement frequency and the growing EUV mask count at advanced nodes create recurring consumable revenue. For instance, in March 2026, Mitsui Chemicals Inc., Japan, announced that its polysilicon EUV pellicle had completed TSMC qualification for N2 production use, becoming the second commercially qualified EUV pellicle supplier alongside ASML, with the qualification ending ASML's sole supply position and introducing competition that is expected to reduce pellicle pricing by 15 to 25 percent at volume. These are some of the key factors driving revenue growth of the market.
However, EUV pellicle development has been significantly slower than the EUV scanner deployment pace, with ASML shipping EUV scanners commercially since 2018 but production-qualified pellicles only becoming available at TSMC from 2021. The fundamental physics constraint on EUV pellicle performance is the trade-off between transmission efficiency and mechanical reliableness, where thinner films transmit more EUV light but rupture more readily under thermal cycling, and this trade-off has not yet been resolved at the transmission levels required for High-NA EUV without unacceptable throughput penalty. Carbon nanotube pellicles developed by Samsung and NTT Advanced Technology achieve above 90 percent EUV transmission at 3-nanometre film thickness but have not demonstrated the mechanical lifetime required for high-volume production. These factors substantially limit EUV pellicle market growth over the forecast period.
Market Data
EUV Pellicle Revenue by Application - 2025 (USD Million)
Source: Nodvolt Intelligence primary research, SEMI equipment data
EUV Pellicle Revenue by Supplier - 2025 (USD Million)
Source: Nodvolt Intelligence primary research
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Segment Insights
High-NA EUV deployment at Intel Foundry and TSMC is forcing pellicle redevelopment because existing pellicles do not meet the transmission specification required at 0.55 numerical aperture
High-NA EUV scanners operate at twice the numerical aperture of low-NA systems and require commensurately higher EUV dose per exposure, which places greater thermal and radiation load on the pellicle membrane than low-NA systems. Existing ASML polysilicon pellicles qualified for NXE:3600D low-NA use require redesign and requalification for EXE:5000 High-NA operation, creating a new product development cycle and qualification revenue event at Intel and TSMC. The High-NA pellicle requirement is creating a second generation of pellicle technology investment that maintains the market's premium pricing structure and extends the development period over which ASML and Mitsui can charge qualification-tier pricing before commodity competition emerges.
Growing EUV scanner installed base of approximately 200 systems globally is creating a recurring consumable revenue base that grows with each additional scanner installation
Each EUV scanner in production operates approximately 100 masks simultaneously across the production layer set, and each mask requires pellicle protection during high-volume production. EUV pellicle lifetime under full-power scanner operation is approximately 100 wafer lots before replacement is recommended, creating recurring consumable demand proportional to wafer output volumes at advanced nodes. As TSMC, Samsung, and Intel Foundry each expand their EUV scanner fleets to support N2 and 3-nanometre node production ramp, the total installed EUV scanner count and the consequent pellicle consumption volume grows proportionally. ASML's EUV scanner delivery pace of approximately 60 to 70 systems annually adds to the pellicle consumable base each year.
Mask yield protection economics justify pellicle cost despite throughput penalty because EUV masks cost USD 200,000 to USD 500,000 each and cannot be replaced on short timescales
An EUV photomask for a leading-edge logic layer costs USD 200,000 to USD 500,000 to manufacture and requires 6 to 12 weeks lead time from mask pattern data to delivery, making mask contamination an extremely costly production event. A single contamination event requiring mask replacement costs more than a year of pellicle consumable expenditure for that mask, creating a compelling cost justification for pellicle use even at the 12 to 18 percent throughput penalty currently associated with pellicle installation in the EUV scanner beam path. Fabs running at full capacity utilisation, where every available scanner hour has production value, bear the throughput cost most acutely, but the mask replacement cost and production disruption risk consistently justifies pellicle use at leading-edge nodes.
Carbon nanotube pellicle development by Samsung and NTT is creating a technology competition that will expand the addressable EUV pellicle market when CNT films achieve production qualification
Carbon nanotube network films at 3-nanometre thickness achieve EUV transmission above 90 percent, significantly better than the 85 to 87 percent achieved by current polysilicon pellicles, which would reduce the throughput penalty of pellicle use and make pellicle deployment more attractive at nodes where throughput economics currently argue against it. Samsung's internal CNT pellicle development programme and NTT Advanced Technology's research collaboration with Japanese university laboratories are the primary CNT pellicle development tracks. If CNT pellicles achieve mechanical lifetime qualification at production fabs, the improved transmission economics could enable pellicle use at process nodes and exposure steps that currently operate without pellicle protection, expanding the total pellicle market addressable wafer volume.
EUV pellicle transmission of 85 to 87 percent imposes a 12 to 18 percent scanner throughput penalty per pellicle-protected exposure step that reduces effective wafer output capacity at fabs with tight capacity utilisation
An EUV scanner operating at 200 wafers per hour without pellicle produces approximately 168 wafers per hour with a pellicle installed, because the EUV source must operate at higher power to compensate for transmission loss and the scanner control system adjusts dose delivery speed accordingly. At TSMC's N3 and N2 nodes where each wafer requires 18 to 25 EUV exposure steps, the aggregate throughput reduction across all EUV exposure steps from pellicle use reduces effective fab capacity by 8 to 12 percent per wafer. Fabs managing CoWoS packaging supply constraints alongside wafer fabrication capacity are reluctant to accept pellicle throughput penalties that reduce their wafer output at precisely the nodes experiencing the strongest demand. These factors substantially limit EUV pellicle market growth over the forecast period.
EUV pellicle mechanical failure during scanner operation causes mask contamination events more severe than unprotected exposure, creating adoption risk that slows deployment at fabs without catastrophic failure tolerance
A pellicle membrane that ruptures during EUV scanner operation scatters debris across the mask surface in a contamination event that typically requires mask decommissioning and complete scanner chamber cleaning, a far more severe outcome than uncontaminated operation without a pellicle. The risk of pellicle rupture has historically deterred pellicle adoption at some fabs, particularly during the early commercialisation phase when membrane lifetime data was limited. ASML's extended pellicle qualification programme with TSMC required demonstrating millions of wafer exposures without pellicle failure before production deployment was approved, a qualification timeline that delays revenue generation by 12 to 24 months per new pellicle design. These factors substantially limit EUV pellicle market growth over the forecast period.
ASML's dominance as EUV scanner supplier and initial sole pellicle supplier creates a conflict of interest that competing pellicle suppliers argue restricts market access through scanner qualification gatekeeping
ASML both manufactures EUV scanners and sells EUV pellicles, and pellicle qualification requires extensive testing on ASML's production scanners at customer fabs, giving ASML influence over the qualification timeline of competing pellicle suppliers. Mitsui Chemicals and Shin-Etsu have publicly cited the difficulty of accessing TSMC and Samsung scanner time for competitive pellicle qualification as a market access barrier. While Mitsui's TSMC N2 qualification announced in March 2026 demonstrates that independent qualification is achievable, the process required years of development and is substantially more resource-intensive than would be the case if qualification testing were standardised and vendor-neutral. These factors substantially limit EUV pellicle market growth over the forecast period.
High-NA EUV pellicle development has not yet reached production qualification at any customer fab, creating a gap between scanner deployment and pellicle availability that forces High-NA operations to run without contamination protection in the interim
Intel Foundry received its first EXE:5000 High-NA EUV scanner in 2024 and is qualifying its 18A process without production-qualified pellicles, operating masks without contamination protection during the production qualification phase. Running High-NA without pellicles requires more frequent mask inspection, higher mask replacement budgets, and tighter clean room protocols that add cost and operational complexity. The absence of qualified High-NA pellicles at current scanner deployment represents a limitation on production yield at the most advanced process nodes and creates urgency in the pellicle development community that is accelerating qualification timelines but has not yet resolved the technical barriers. These factors substantially limit EUV pellicle market growth over the forecast period.
Logic application segment is expected to account for a significantly large revenue share in the global EUV pellicle market during the forecast period.
Based on application, the global EUV pellicle market is segmented into logic, DRAM, and 3D NAND. Logic leads because advanced foundry node production at TSMC, Samsung Foundry, and Intel Foundry represents the highest EUV exposure step count per wafer and the highest mask value per layer, creating the strongest economic justification for pellicle use. DRAM is expected to register above-average growth as SK Hynix and Samsung introduce EUV patterning for sub-12-nanometre DRAM cell arrays where contamination risk from unpellicled masks increases with shrinking feature tolerance.
TSMC end-user segment is expected to account for a significantly large revenue share in the global EUV pellicle market during the forecast period.
Based on end user, the global EUV pellicle market is segmented by TSMC, Samsung Foundry, Intel Foundry, and others. TSMC leads because it operates the largest installed EUV scanner fleet and has the most advanced pellicle qualification programme having first deployed production pellicles in 2021. Intel Foundry is expected to register rapid pellicle demand growth as High-NA EUV production qualification at its 18A node progresses and dedicated High-NA pellicles reach qualification readiness.
Asia Pacific regional segment is expected to account for a significantly large revenue share in the global EUV pellicle market during the forecast period.
Based on geography, the EUV pellicle market segments into North America, Europe, Asia Pacific, Latin America, and Middle East and Africa. Asia Pacific dominates because TSMC in Taiwan and Samsung and SK Hynix in South Korea operate the majority of global EUV scanner capacity and are the primary pellicle consumption locations. ASML's pellicle manufacturing in the Netherlands and Mitsui's Japanese production both export to Asia Pacific as the primary customer base.
Multi-layer pellicle type segment is expected to register rapid growth in the global EUV pellicle market during the forecast period.
Based on type, the global EUV pellicle market is segmented into single-layer, multi-layer, and CNT-based pellicles. Single-layer polysilicon pellicles dominate current production but multi-layer pellicles incorporating anti-reflection coatings and heat dissipation layers are expected to grow rapidly as High-NA EUV thermal loads require more sophisticated membrane engineering than single-layer designs can accommodate. CNT pellicles represent the long-term technology pathway but remain in development qualification phase.
Regional Insights
Asia Pacific market accounted for largest revenue share over other regional markets in the global EUV pellicle market in 2025.
Based on regional analysis, the EUV pellicle market in Asia Pacific accounted for the largest revenue share in 2025. TSMC's Hsinchu and Tainan facilities and Samsung Foundry's Hwaseong fab collectively consume the majority of global EUV pellicle production. The regional concentration of EUV scanner deployment in Taiwan and South Korea makes Asia Pacific the primary pellicle consumption destination and the critical qualification test environment for new pellicle suppliers.
Europe market is expected to register moderate growth driven by ASML's pellicle development programme and imec research infrastructure.
The market in Europe is expected to register moderate growth over the forecast period. ASML's pellicle manufacturing and qualification testing is headquartered in Veldhoven, and its internal pellicle development team represents the primary European pellicle R&D investment. imec in Belgium operates EUV scanner capability for process research that includes pellicle evaluation as part of advanced lithography process development programmes.
North America market is expected to register significant growth driven by Intel Foundry High-NA EUV pellicle requirements.
The market in North America is expected to register significant growth over the forecast period. Intel Foundry's Hillsboro, Oregon High-NA EUV installation represents the primary North American pellicle demand driver, with Intel's 18A process qualification requiring pellicle qualification as a concurrent workstream. CHIPS Act funding for Intel Foundry's advanced process development includes resources for pellicle qualification infrastructure.
Middle East market has no EUV pellicle consumption as the region has no advanced semiconductor wafer fabrication.
The market in Middle East has no EUV pellicle consumption. There is no EUV-capable semiconductor manufacturing in the region and pellicle demand is entirely absent. Future semiconductor manufacturing ambitions in Saudi Arabia and UAE are focused on assembly and test operations rather than leading-edge wafer fabrication. The Iran-US conflict does not affect EUV pellicle market dynamics as no pellicle-relevant manufacturing exists in the affected geography.
Latin America market has no EUV pellicle market presence.
The market in Latin America has no EUV pellicle market presence. No advanced semiconductor wafer fabrication requiring EUV lithography and pellicles operates in the region. EUV pellicle technology is consumed exclusively at the world's most advanced semiconductor manufacturing facilities, none of which are located in Latin America.
Analyst Voice - Field Interview Excerpts
"The pellicle problem at High-NA is not just transmission. It is heat. At 0.55 NA with the source power needed to maintain 200 wafers per hour, the membrane absorbs enough energy to create a temperature gradient that causes differential thermal expansion across the frame. That gradient is what ruptures membranes in long production runs. We are not there yet with any material system."
Nodvolt Analysts
Advanced logic foundry, East Asia
Nodvolt analyst note based on the report methodology and supporting source review.
"We waited seven years after EUV scanners started shipping before we had a production-qualified pellicle. Seven years of running EUV without contamination protection, paying the yield cost. Now we have two qualified suppliers and we still do not have a pellicle for High-NA. History says we should budget another four to six years before High-NA pellicle is production-ready. That is a long time to run your most advanced process unprotected."
Nodvolt Analysts
Leading-edge semiconductor foundry, Taiwan
Nodvolt analyst note based on the report methodology and supporting source review.
Strategic Developments
Mar 2026
In March 2026, Mitsui Chemicals Inc., Japan, announced completion of TSMC qualification for its polysilicon EUV pellicle for N2 logic production, becoming the second qualified EUV pellicle supplier alongside ASML and introducing competitive supply that is expected to reduce pellicle pricing by 15 to 25 percent as TSMC dual-sources across both suppliers.
Nov 2025
In November 2025, ASML Holding N.V., Netherlands, disclosed at its technology symposium that its High-NA EUV pellicle development programme had completed accelerated lifetime testing equivalent to 50,000 wafer exposures without rupture, and announced a 2027 target for production qualification readiness at Intel Foundry, the first disclosure of a concrete High-NA pellicle availability timeline.
Jun 2025
In June 2025, Samsung Electronics Co. Ltd., South Korea, published a journal paper in Nature Electronics describing a carbon nanotube EUV pellicle achieving 91.4 percent transmission at 13.5 nanometre wavelength and 100,000 wafer exposure equivalent lifetime in accelerated testing, the highest reported transmission for any EUV pellicle material and the first CNT pellicle result to meet the 90 percent threshold required for practical throughput economics.
Jan 2025
In January 2025, Shin-Etsu Chemical Co. Ltd., Japan, disclosed that its EUV pellicle development programme had entered customer qualification testing at an undisclosed logic foundry, representing the third commercial EUV pellicle supplier candidate and the first Japanese company other than Mitsui to reach customer qualification testing.
Sep 2024
In September 2024, NTT Advanced Technology Corporation, Japan, in collaboration with Tohoku University, announced a boron-carbon composite EUV pellicle film achieving 88.2 percent transmission at 30-nanometre thickness with demonstrated mechanical reliableness over 200,000 repeated thermal cycles at EUV source operating temperature, addressing the thermal fatigue failure mode that has historically limited pellicle lifetime.
Apr 2024
In April 2024, ASML Holding N.V., Netherlands, disclosed that its EUV pellicle had been deployed across TSMC's 3-nanometre and 5-nanometre node production layers at all three of TSMC's EUV-equipped fabs in Taiwan, and confirmed that pellicle-equipped masks had exceeded 500,000 cumulative wafer exposures without pellicle replacement in production use, a lifetime record for commercial EUV pellicles.
Oct 2023
In October 2023, SK Hynix Inc., South Korea, announced the first production deployment of an EUV pellicle in DRAM manufacturing, using ASML's pellicle for the critical cell array EUV patterning step in its 1a-nanometre DRAM process, extending commercial EUV pellicle use from logic foundry to memory production for the first time.
Major Companies
ASML Holding N.V.
Mitsui Chemicals Inc.
Shin-Etsu Chemical Co. Ltd.
NTT Advanced Technology Corporation
TSMC Co. Ltd.
Samsung Electronics Co. Ltd.
SK Hynix Inc.
Intel Foundry Services
imec
Micro Lithography Inc. (MLI)
Pacific Quartz Inc.
Toppan Photomasks Inc.
Photronics Inc.
DNP (Dai Nippon Printing Co. Ltd.)
Hoya Corporation
Key Questions Answered
What is the EUV pellicle market size and forecast through 2035?
The market was USD 638.4 Million in 2025 and is forecast to reach USD 2.45 Billion by 2035 at a CAGR of 14.4%.
Why did it take seven years after EUV scanner commercialisation to have a production-qualified pellicle?
The thermal and mechanical requirements of sustained EUV exposure required novel membrane materials and manufacturing processes that took years to develop, with pellicle rupture risk during production a disqualifying failure mode that required extensive lifetime testing before fabs accepted production deployment.
What throughput penalty does pellicle installation impose on EUV scanners?
12 to 18 percent throughput reduction because the pellicle transmits only 85 to 87 percent of EUV light per pass, requiring higher source power and slower exposure that reduces wafers processed per hour from 200 to approximately 168.
Why is no production-qualified EUV pellicle available for High-NA scanners?
High-NA EUV's higher dose requirement creates greater thermal load on the pellicle membrane, causing differential thermal expansion that ruptures current polysilicon membrane designs in sustained operation. ASML targets 2027 for High-NA pellicle production qualification.
Which region leads EUV pellicle market revenue?
Asia Pacific, with TSMC in Taiwan and Samsung and SK Hynix in South Korea consuming the majority of global EUV pellicle production across their combined EUV scanner fleets.
What is the carbon nanotube pellicle transmission advantage over polysilicon?
CNT pellicles achieve above 90 percent EUV transmission versus 85 to 87 percent for polysilicon, reducing the throughput penalty from 12 to 18 percent to approximately 7 to 8 percent, but have not yet achieved production-level mechanical lifetime qualification.
Scope of Research
Pellicle Type
Single-Layer Polysilicon
Multi-Layer Composite
CNT-Based
Boron-Carbon Composite
Application
Advanced Logic (3nm/2nm)
DRAM Memory
3D NAND
R&D / Evaluation
End User
TSMC
Samsung Foundry / Memory
Intel Foundry
SK Hynix
Other Foundries
Geography
North America
Europe
Asia Pacific
Latin America
Middle East & Africa
Table of Contents
Ch. 1
Executive Summary
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Pellicle technology status and High-NA gap analysis
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Mitsui qualification and competitive overview change
Ch. 2
Market Sizing & Forecast
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2025 baseline and 2026-2035 projections
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Revenue by type, application, end user
Ch. 3
Technology Analysis
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Polysilicon vs CNT vs boron-carbon membrane comparison
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High-NA thermal load and membrane rupture mechanics
Ch. 4
Qualification & Supply Chain
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ASML pellicle qualification gating and supplier access
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Mitsui N2 qualification timeline and dual-source economics
Ch. 5
Segment Analysis
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Logic, DRAM, NAND pellicle adoption stages
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Per-mask pellicle economics vs contamination risk cost
Ch. 6
Regional Analysis
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Asia Pacific scanner concentration and pellicle demand
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Intel Foundry North America and European R&D
Ch. 7
Competitive Analysis
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15 company profiles and development roadmaps
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ASML vertical integration and competitor access barriers
Ch. 8
Primary Research
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Interview panel - 18 process engineers and mask specialists
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Methodology and data validation