German research university with deep expertise in photonics, laser systems, advanced glass, and graphene — rooted in Jena's 150-year optics tradition.
Friedrich Schiller University Jena is a major German research university with deep strength in photonics, laser physics, and advanced glass materials — fields where Jena has been a world center since the days of Carl Zeiss and Ernst Abbe. In H2020, the university contributed expertise in ultrashort-pulse laser systems, silicon photonics, specialty optical fibers, and functional glass design, while also maintaining active research lines in microbial ecology, nanomaterials (including graphene), and gravitational wave modeling. Their work spans from fundamental physics (ERC grants in laser amplification and neutron star binaries) to applied material science (large-area fluidic windows, redox-flow batteries, point-of-care diagnostics), making them a versatile partner for both curiosity-driven and industry-oriented consortia.
Core theme across MIMAS (ultrashort laser pulse amplification, EUR 2.4M as coordinator), LASERLAB-EUROPE, MULTIPLY, SiLAS (silicon laser), NOLOSS, and multiple projects referencing femtosecond laser processing, direct laser writing, and silicon photonics.
Two phases of FunGLASS/FunGlass (centre of excellence for functional glasses), UTOPES (topological design of non-crystalline materials, EUR 2.0M as coordinator), plus keywords on optical sensors, mid-IR technology, and hybrid materials for optics.
Participant in GrapheneCore1 (Graphene Flagship), NaMeS nanoscience training network, and recent keyword cluster around graphene, composite materials, and electronics applications.
ALFF (algal microbiome), BIG4 (insect biosystematics), MIRA (microbe-induced crop resistance), plus recent focus on metagenomics and metabolomics reflected in keyword data.
BinGraSp (modeling gravitational spectrum of neutron star binaries, EUR 1.4M ERC grant as coordinator) and related space-sector participation.
Women entrepreneurs programme (EUR 504K as coordinator), CATCH-EyoU (youth citizenship), FIRES (entrepreneurial society), and NIR-VANA (innovation networking for SMEs).
In the early H2020 period (2015–2018), Jena's portfolio was broad and exploratory: algal biotechnology, environmental monitoring (SWOS, BACI), entrepreneurship education, and foundational work on functional glasses through the first FunGLASS teaming project. From 2017 onward, a sharp consolidation emerged around photonics, graphene, and advanced optical materials — the keywords graphene, photonics, silicon photonics, glass, and laser spectroscopy dominate the recent period. This reflects the university doubling down on its historic Jena optics cluster strengths, while life sciences pivoted from ecology toward molecular tools (metagenomics, metabolomics).
Jena is concentrating its EU research around photonics and advanced materials, positioning itself as a go-to partner for optical technologies, specialty glass, and graphene-integrated devices.
With 19 coordinated projects out of 62 (31%), Jena leads a substantial share of its consortia — well above average for a university. They operate across 668 unique partners in 50 countries, indicating a hub-style network rather than a closed circle of repeat collaborators. Their mix of large RIA consortia, MSCA training networks (11 projects), and solo ERC grants shows they are equally comfortable steering multi-partner projects and pursuing independent frontier research.
Jena has built one of the broader university networks in H2020, connecting with 668 distinct organizations across 50 countries. While rooted in European partnerships, their reach extends globally, with particular density in Western European photonics and materials science clusters.
Jena sits at the intersection of photonics, laser physics, and glass science — a combination rooted in the city's 150-year optical tradition (Zeiss, Schott, Jenoptik) that few European universities can match. Their ability to move between fundamental physics (ERC-funded gravitational wave research) and applied materials development (functional glass, fluidic windows, graphene composites) makes them unusually versatile. For consortium builders, they offer both the scientific depth of a top German research university and practical connections to the Thuringian optics industry cluster.
