TRUMPF SCIENTIFIC LASERS GMBH + COKG

Their core work

TRUMPF Scientific Lasers is the scientific and research-grade laser division of TRUMPF, a global laser technology manufacturer headquartered in Germany. They design and build high-power ultrashort pulse laser systems based on thin-disk laser architecture — a technology class that delivers exceptional beam quality at very high average powers, enabling experiments at the frontier of laser physics. In EU research projects, they function as a technology contributor, supplying the laser hardware that makes experiments physically possible: from attosecond molecular dynamics studies (MEDEA) to megawatt-class atmospheric filamentation for lightning redirection (LLR). They do not lead research consortia but embed their systems as critical enabling infrastructure for the science to happen.

What they specialise in

How they've shifted over time

Their earliest H2020 participation (MEDEA, 2015–2018) left no project-level keywords in the data, suggesting a background supplier role in attosecond and ultrafast laser science with limited public-facing attribution. By the LLR project (2017–2021), their contribution became central and explicitly named: high-power thin-disk lasers enabling atmospheric filamentation and lightning initiation — a high-visibility scientific application with real-world infrastructure implications. The trajectory moves from quietly enabling fundamental physics to being the core technology provider in an applied, field-tested experiment.

TRUMPF Scientific Lasers is moving from a background hardware supplier in academic physics toward an active partner in applied laser science with direct real-world use cases — a direction that makes them increasingly relevant for consortia bridging laboratory capability and field deployment.

How they like to work

TRUMPF Scientific Lasers consistently joins as a participant or third party, never as coordinator — a pattern consistent with an industrial technology supplier that contributes hardware and application expertise rather than scientific leadership. Despite only two projects, they reached 26 unique partners across 11 countries, suggesting they are integrated into broad, well-connected research networks rather than narrow bilateral arrangements. Working with them likely means access to a mature industrial partner who delivers equipment reliably but will not drive the administrative or scientific direction of a project.

With 26 unique consortium partners spanning 11 countries from just two projects, TRUMPF Scientific Lasers punches well above its project count in terms of network reach. Their collaborations are European in scope, consistent with the international character of frontier laser physics and FET-funded research consortia.

What sets them apart

TRUMPF Scientific Lasers sits at the rare intersection of industrial-grade manufacturing quality and frontier scientific laser performance — they are not a university lab building one-off systems but a company that can deliver reproducible, high-power, ultrashort-pulse lasers to exacting research specifications. In the specific niche of thin-disk laser technology at high average power, they are among a very small number of European suppliers capable of equipping projects that push the physical limits of laser-atmosphere interaction. For any consortium needing a credible industrial laser partner with both scientific track record and commercial production capability, this is a difficult profile to replicate.

Highlights from their portfolio

• LLR
  The Laser Lightning Rod project is one of Europe's most ambitious applied laser physics experiments — aiming to replace passive copper lightning rods with a directed laser beam, requiring the multi-megawatt thin-disk laser system that TRUMPF Scientific Lasers provided as the project's core enabling technology.
• MEDEA
  Participation in this FET-funded attosecond science project demonstrates TRUMPF Scientific Lasers' reach into the most demanding end of ultrafast laser research, where timing precision is measured in billionths of a billionth of a second.