Both LightAir and BEDYN involve composite materials, with BEDYN explicitly focused on characterizing composite behavior through testing, measurement, and analysis.
COMPOXI S.L.
Spanish aerospace SME specializing in composite materials testing, dynamic fracture modeling, and industrial characterization methodology for lightweight structures.
Their core work
COMPOXI S.L. is a Spanish SME based in Girona that specializes in composite materials engineering for aerospace applications. Their core work spans the full characterization cycle of composite structures: physical testing, dynamic measurement, and computational modeling of how composites behave under load — including fracture and failure analysis. They have contributed to European aviation research by developing industrial-grade methodologies that make composite material behavior predictable and reproducible in production contexts. Their participation in Clean Sky 2 confirms they operate at the applied end of aerospace R&D, translating research findings into engineering practice.
What they specialise in
BEDYN keywords (dynamic test, dynamic modeling, fracture) point to specialist capability in characterizing how composites fail or deform under dynamic loading conditions.
LightAir targeted lightweight airframe construction through combination of high-performance materials, placing COMPOXI in the structural aerospace composites space.
BEDYN was explicitly a methodology project — developing a standardized test-and-analysis framework for composite behavior, not just running experiments.
How they've shifted over time
COMPOXI entered H2020 participation through LightAir (2018–2020), focused on structural application — combining high-performance materials to achieve lightweight airframes. No keyword data survives from that project, suggesting their role may have been more execution-focused than methodology-leading. By BEDYN (2020–2023), their contribution had shifted toward developing reusable industrial methodology for composite characterization under dynamic conditions, including fracture — a more systematic and transferable body of work.
COMPOXI appears to be moving from structural application of composites toward becoming a methodology provider — an organization that defines how composite behavior is tested and validated in industrial settings, which is a higher-leverage and more defensible position in the aerospace supply chain.
How they like to work
COMPOXI has participated exclusively as a consortium member, never as coordinator, across both projects. Their network is very tight — just 3 unique partners, all within Spain — suggesting they are brought in as a focused technical contributor rather than a project architect. This pattern fits a specialist SME that large aerospace primes or research institutions pull in for specific composite testing and modeling tasks.
COMPOXI has collaborated with only 3 unique partners, all based in Spain, indicating a domestic collaboration network despite participating in EU-level Joint Technology Initiatives. Their Clean Sky 2 participation suggests connections to the broader European aviation ecosystem, but their direct consortium ties remain strongly local.
What sets them apart
COMPOXI occupies a narrow but valuable niche: an industrial SME that can both test composite structures physically and model their dynamic behavior computationally — bridging the lab-to-factory gap that many academic partners cannot. Their Clean Sky 2 participation (a highly competitive JTI with strict industrial relevance criteria) signals that their composite expertise has passed peer scrutiny at the European aviation level. For a consortium needing someone to develop and validate composite testing protocols rather than just apply existing ones, COMPOXI is a credible and lean option.
Highlights from their portfolio
- LightAirTheir largest funded project (EUR 167,720), targeting lightweight airframe structures — a core challenge in commercial aviation weight reduction and fuel efficiency.
- BEDYNA methodology-building project under Clean Sky 2 that produced a reusable framework for characterizing composite behavior under dynamic loading — the kind of output with lasting industrial value beyond the project itself.