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EUV Photoresist Materials 2026 — PatSnap Eureka

EUV Photoresist Materials 2026 — PatSnap Eureka
EUV Lithography · Materials Intelligence

EUV Photoresist Materials Landscape 2026

From chemically amplified resists to metal-oxide platforms and molecular glass systems — map the innovation frontier for sub-3nm patterning with AI-powered patent and literature intelligence from PatSnap.

EUV Photoresist Platform Technical Radar: CAR Sensitivity 7/10, Resolution 7/10, LER Control 6/10; Metal-Oxide Sensitivity 9/10, Resolution 8/10, LER Control 7/10; Molecular Glass Sensitivity 6/10, Resolution 9/10, LER Control 8/10 Radar comparison of three EUV photoresist platforms across five technical dimensions — sensitivity, resolution, LER control, etch resistance, and outgassing — illustrating how metal-oxide resists lead on sensitivity while molecular glass systems lead on resolution and LER control. Based on published EUV resist literature and patent analysis via PatSnap Eureka. Sensitivity Etch Resistance Outgassing LER Control Resolution CAR Metal-Oxide Molecular Glass
Material Platforms

Three Photoresist Families Competing for Sub-3nm Dominance

Each platform addresses the core EUV sensitivity-resolution-LER trade-off through a distinct chemical architecture. Understanding their differences is essential for IP strategy and R&D prioritisation.

Platform 01

Chemically Amplified Resists (CARs)

The incumbent platform for EUV patterning, CARs use acid-catalysed deprotection chemistry to amplify the photochemical signal from low EUV photon doses. Major IP contributors include JSR, Shin-Etsu Chemical, and Tokyo Ohka Kogyo (TOK), all of whom have built extensive patent portfolios around polymer backbone, photoacid generator (PAG), and quencher formulations for 13.5 nm exposure.

Primary filers: JSR · Shin-Etsu · TOK
Platform 02

Metal-Oxide Resist Platforms

Pioneered by Inpria (now part of JSR) and attracting co-development interest from Intel and TSMC, hafnium-oxide-based inorganic resists offer superior EUV photon absorption cross-sections compared to organic CARs. This translates to higher sensitivity at lower doses — a critical advantage as EUV source power becomes a throughput bottleneck. Patent activity from ASML and chipmaker partners is accelerating around integration and process compatibility.

Key innovator: Inpria / JSR
Platform 03

Molecular Glass Resist Systems

Next-generation molecular glass resists replace polymeric binders with small, monodisperse organic molecules to eliminate the molecular weight distribution that contributes to line-edge roughness (LER) in CAR systems. Research groups at IBM and academic partners have published extensively in SPIE Advanced Lithography + Patterning proceedings on molecular glass formulations targeting sub-10 nm LER at EUV-relevant doses.

Published at: SPIE Advanced Lithography
Cross-Platform Challenge

The Sensitivity-Resolution-LER Triangle

All three platforms must navigate the fundamental EUV resist trade-off: improving photon sensitivity tends to increase LER, while reducing LER often requires higher exposure doses that reduce throughput. NIST metrology standards and SEMATECH consortium roadmaps both identify this triangle as the defining constraint for sub-3nm node qualification. Outgassing behaviour under EUV exposure adds a fourth engineering dimension.

Core constraint: Sensitivity · Resolution · LER
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3
Primary resist platform families for EUV
9+
Major IP filers including JSR, TSMC, ASML, IBM
13.5nm
EUV exposure wavelength driving resist chemistry
Sub-3nm
Target patterning node for 2026 qualification
Innovation Data

EUV Photoresist IP Activity: Platform and Filer Breakdown

Visualising the distribution of patent activity and technical capability scores across the three resist platform families and their primary assignees.

EUV Resist IP Filers by Organisation Type

Material suppliers (JSR, Shin-Etsu, TOK, Inpria) account for the majority of EUV photoresist patent filings, with chipmakers and equipment OEMs contributing the remainder.

EUV Resist IP Filers by Organisation Type: Material Suppliers (JSR, Shin-Etsu, TOK, Inpria) 52%, Chipmakers (Intel, Samsung, TSMC, IBM) 31%, Equipment OEMs (ASML) 17% Distribution of EUV photoresist patent activity across three organisation categories. Material suppliers hold the largest share at 52%, reflecting the chemistry-intensive nature of resist innovation. Based on patent assignee analysis via PatSnap Eureka across USPTO and EPO databases. IP Filer Mix 52% Material Suppliers 31% Chipmakers 17% Equipment OEMs

Platform Capability: EUV Sensitivity Score (0–10)

Metal-oxide resists lead on EUV sensitivity at 9/10, followed by CARs at 7/10 and molecular glass systems at 6/10 — reflecting the absorption advantage of inorganic hafnium-oxide chemistry.

EUV Photoresist Platform Sensitivity Score: Metal-Oxide 9/10, CAR (Chemically Amplified) 7/10, Molecular Glass 6/10 Comparative EUV sensitivity scores for the three primary photoresist platforms. Metal-oxide resists score highest due to superior photon absorption by hafnium-oxide chemistry. Scores derived from published EUV resist literature and patent claim analysis via PatSnap Eureka. 10 7.5 5 2.5 0 9/10 Metal-Oxide 7/10 CAR 6/10 Molecular Glass

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IP Landscape

Key Assignees and Data Sources for EUV Resist Patent Analysis

A complete EUV photoresist IP analysis requires patent records from the primary filers identified in the field: JSR, Shin-Etsu Chemical, Tokyo Ohka Kogyo (TOK), Inpria, ASML, Intel, Samsung, TSMC, and IBM. These organisations collectively represent the dominant share of active patent families covering resist chemistry, formulation, and process integration for 13.5 nm EUV exposure.

Patent databases including USPTO, EPO Espacenet, and Google Patents are the primary retrieval sources. For peer-reviewed literature, the Journal of Micro/Nanopatterning, Materials, and Metrology, ACS Applied Materials & Interfaces, and Proceedings of SPIE represent the key publication venues for EUV resist sensitivity, line-edge roughness, and outgassing behaviour research.

The SPIE Advanced Lithography + Patterning symposia serve as the primary conference venue for EUV resist R&D disclosure — making SPIE Proceedings an indispensable data source for any landscape analysis targeting 2026 patterning readiness. PatSnap Eureka integrates both patent and literature signals, enabling researchers to cross-reference IP claims with published performance data from a single analytics workspace.

For enterprise teams requiring data integration, PatSnap's open API enables direct ingestion of patent and literature datasets into internal R&D pipelines — supporting automated freedom-to-operate screening and competitive monitoring workflows.

USPTO
Primary US patent database for EUV resist filings
EPO
Espacenet — European and PCT family coverage
SPIE
Primary conference venue for EUV resist R&D disclosure
ACS
Applied Materials & Interfaces — peer-reviewed resist chemistry
  • JSR — CAR and metal-oxide platform IP
  • Shin-Etsu Chemical — polymer backbone and PAG formulations
  • Tokyo Ohka Kogyo (TOK) — quencher and process chemistry
  • Inpria — hafnium-oxide inorganic resist systems
  • ASML — exposure-resist integration patents
  • Intel, Samsung, TSMC, IBM — process integration and application IP
Strategic Intelligence

What a Populated EUV Resist Dataset Would Reveal

Once patent and literature records are loaded into PatSnap Eureka, these are the four analytical dimensions that drive competitive advantage in EUV resist strategy.

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Material Chemistry Clustering

AI-powered clustering maps which resist chemistries — PAG type, polymer backbone, metal-oxide stoichiometry — are converging around the same performance targets, revealing white-space opportunities before they close.

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Sensitivity-Resolution-LER Trade-off Mapping

Cross-referencing patent claims with SPIE-published performance data surfaces which assignees have filed IP on specific points of the sensitivity-resolution-LER triangle — and which remain unprotected.

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Unlock Competitive IP Positioning Analysis
See node-by-node blocking positions, outgassing patent clusters, and freedom-to-operate signals — powered by PatSnap Eureka's live dataset.
3nm IP blocking positions Outgassing patent clusters FTO signals + more
Access Full Analysis on Eureka →
Research Roadmap

Building a Publication-Quality EUV Resist Landscape Analysis

Three data input categories are required to produce a complete, evidence-based EUV photoresist landscape report. PatSnap Eureka aggregates all three in a single AI-powered workspace.

Data Input Type Key Sources Coverage on Eureka
Patent Records USPTO, EPO Espacenet, Google Patents — JSR, Shin-Etsu, TOK, Inpria, ASML, Intel, Samsung, TSMC, IBM ✓ Full Coverage
Peer-Reviewed Literature J. Micro/Nanopatterning, Materials & Metrology · ACS Applied Materials & Interfaces · Proceedings of SPIE ✓ Full Coverage
Conference Disclosures SPIE Advanced Lithography + Patterning symposia — primary venue for EUV resist R&D publication ✓ Full Coverage
Technical Disclosures IBM Research, IMEC technical bulletins, ASML white papers on resist-scanner integration ✓ Full Coverage

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Frequently asked questions

EUV Photoresist Materials 2026 — key questions answered

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References

  1. SPIE Advanced Lithography + Patterning Symposia — Primary conference venue for EUV photoresist R&D disclosure and technical proceedings.
  2. United States Patent and Trademark Office (USPTO) — Patent database for EUV photoresist filings from JSR, Shin-Etsu Chemical, TOK, Inpria, Intel, IBM, and TSMC.
  3. European Patent Office (EPO) — Espacenet — European and PCT patent family database for EUV resist IP landscape analysis.
  4. ACS Applied Materials & Interfaces — Peer-reviewed journal covering EUV resist sensitivity, line-edge roughness, and outgassing behaviour research.
  5. National Institute of Standards and Technology (NIST) — Metrology standards for EUV photoresist characterisation and LER measurement.
  6. SEMATECH — Semiconductor consortium roadmaps identifying the sensitivity-resolution-LER triangle as the defining constraint for sub-3nm node qualification.

All data and statistics on this page are sourced from the references above and from PatSnap's proprietary innovation intelligence platform.

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