Central to both TAKEMI5 (5nm node) and ID2PPAC (2nm node) projects, contributing materials and equipment expertise for advanced lithography and metrology.
CRYTUR SPOL SRO
Czech crystal and scintillator manufacturer supplying advanced materials for semiconductor lithography, metrology, and nano-scale process equipment.
Their core work
CRYTUR is a Czech SME specializing in advanced crystal growth, scintillation materials, and precision optical components. Within EU semiconductor initiatives, they contribute materials expertise and crystal-based components for lithography, metrology, and nano-scale process equipment. Their work spans from scintillating fibre development for radiation detection to supplying critical materials for sub-5nm semiconductor manufacturing nodes. Based in Turnov — a historic center of Czech glass and crystal production — they bridge traditional materials craftsmanship with advanced semiconductor technology demands.
What they specialise in
INTELUM project focused on developing advanced scintillating fibres and Cerenkov fibres, directly aligned with their core crystal manufacturing capabilities.
ID2PPAC project targets 2nm node integration with specific focus on lithography, metrology, and mask equipment — a progression toward more advanced process nodes.
How they've shifted over time
CRYTUR's H2020 trajectory shows a clear shift from fundamental materials research toward applied semiconductor manufacturing. Their earliest project (INTELUM, 2015) involved scintillating fibre R&D under a Marie Curie mobility scheme — a research-oriented activity with modest funding. From 2017 onward, they pivoted decisively into semiconductor process technology, participating in two successive Innovation Actions (TAKEMI5 for 5nm, then ID2PPAC for 2nm) with substantially larger budgets, indicating their materials expertise found strong commercial relevance in Europe's semiconductor supply chain ambitions.
CRYTUR is moving deeper into Europe's semiconductor sovereignty push, with each project targeting a more advanced process node — expect continued involvement in sub-2nm and next-generation lithography supply chains.
How they like to work
CRYTUR participates exclusively as a partner, never as coordinator — consistent with their role as a specialized materials supplier contributing specific components to large-scale technology programs. With 54 unique consortium partners across 18 countries from just 3 projects, they operate in very large consortia (averaging 18+ partners per project), typical of major EU semiconductor and photonics initiatives. This positions them as a trusted specialist that large consortia call on for materials expertise rather than a project initiator.
Despite only 3 projects, CRYTUR has built a remarkably wide network of 54 partners across 18 countries — a consequence of participating in large semiconductor consortia that draw from across Europe's technology ecosystem. Their network spans major semiconductor industry players and research institutions continent-wide.
What sets them apart
CRYTUR occupies a niche at the intersection of crystal growth expertise and semiconductor manufacturing — a combination few European SMEs can offer. Their progression from scintillator R&D to 2nm node process materials shows they can translate fundamental materials science into components for the most demanding industrial applications. For consortium builders, they represent a Czech SME with deep materials know-how that complements the equipment manufacturers and fab operators who dominate semiconductor consortia.
Highlights from their portfolio
- ID2PPACTheir largest project (EUR 244K) targeting the 2nm semiconductor node — places them at the frontier of Europe's semiconductor manufacturing roadmap.
- TAKEMI5First entry into semiconductor process technology at the 5nm node, marking CRYTUR's strategic pivot from pure materials research to applied semiconductor manufacturing.
- INTELUMMarie Curie international mobility project on scintillating fibres — reveals their foundational expertise in crystal and optical materials before the semiconductor pivot.