Both SMAART and kW-flexiburst center on USP laser technology — from applied machining intelligence to high-power laser system development.
GFH GMBH
German SME developing ultrashort pulse laser machining systems for precision micro-drilling and 3D structuring of ceramics, metals, and glass.
Their core work
GFH GMBH is a German precision laser technology SME based in Deggendorf, Bavaria, specializing in ultrashort pulse (USP) laser systems and laser-based micro-manufacturing processes. They develop and apply high-precision laser machining for demanding materials — ceramics, metals, and glass — with a focus on micro-drilling and 3D micro-structuring at industrial scale. In their coordinator role on SMAART, they drove development of intelligent laser machining systems aimed at preserving manufacturing competitiveness in Europe. As a participant in kW-flexiburst, they contributed to advancing a kW-class USP laser platform with unprecedented GHz burst operation for high-throughput precision processing.
What they specialise in
kW-flexiburst explicitly targets micro-drilling and 3D micro-structuring of ceramics, metal, and glass using flexible burst-mode laser operation.
kW-flexiburst keywords directly list ceramics, metal, and glass as target materials for the laser processing platform.
SMAART (coordinator role) focused on laser machining intelligence to improve quality, throughput, and competitiveness in European manufacturing.
How they've shifted over time
GFH's H2020 trajectory spans only two years of project starts (2018–2019), so the shift is sharp rather than gradual. Their first project, SMAART, shows an applied-manufacturing orientation — making laser machining smarter and more competitive for industrial users, with no recorded process-level keywords. Their second project, kW-flexiburst, reveals a deeper move into laser physics and system engineering: kW-class power, GHz-rate burst control, and multi-material micro-structuring. The direction is clear: from deploying laser machining in factories toward pushing the performance frontier of the lasers themselves.
GFH is moving up the technology stack — from laser machining applications toward the development of next-generation USP laser sources, which positions them as a future contributor to photonics and advanced manufacturing R&D consortia, not just end-user or integrator roles.
How they like to work
GFH has taken both the lead (SMAART, coordinator) and a specialist partner role (kW-flexiburst), suggesting flexibility in how they engage depending on the project's fit with their core technology. With only 8 unique partners across 2 projects, they operate in small, focused consortia rather than large multi-partner networks. Their coordinator experience on a €1.4M SME Instrument project signals that they are capable of managing a full project lifecycle, not just delivering a work package.
GFH has built a compact but internationally distributed network of 8 partners spanning 5 countries across two projects. Their collaboration footprint is European and technology-focused, consistent with the precision laser and photonics ecosystem centered in Germany and neighboring countries.
What sets them apart
GFH occupies an unusual position for a small SME: they have both run a project as coordinator and contributed as a technical partner in a multi-year RIA with a major laser research consortium. This dual experience — managing a project end-to-end while also working as a specialist inside a larger scientific program — makes them credible to both industry-facing and research-facing partners. Their Deggendorf location places them in Bavaria's precision engineering corridor, with practical proximity to automotive, aerospace, and electronics manufacturers who are prime customers for advanced laser micro-processing.
Highlights from their portfolio
- SMAARTGFH's largest project by funding (€1.47M) and their only coordinator role — an SME Instrument Phase 2 grant, which is highly competitive and awarded only to SMEs with strong commercial potential.
- kW-flexiburstA 5-year RIA targeting a genuinely novel laser architecture (kW-class USP with GHz burst control), placing GFH at the frontier of industrial laser physics research rather than in a purely applied role.