In SH2APED (2021–2024), they worked on developing 70 MPa alternative pressure enclosures for hydrogen fuel cell vehicles, covering mechanical robustness, fire resistance, safety, and efficiency.
PLASTIC OMNIUM ADVANCED INNOVATION AND RESEARCH
Automotive Tier 1 supplier R&D unit developing 70 MPa hydrogen storage vessels and reliability engineering for fuel cell and electronic vehicle systems.
Their core work
Plastic Omnium Advanced Innovation and Research is the European R&D entity of Plastic Omnium, one of the world's largest automotive suppliers with deep roots in fuel systems and exterior components. In EU research consortia, they contribute industrial-grade engineering expertise in two distinct domains: high-pressure hydrogen storage enclosures for fuel cell vehicles, and reliability engineering methodologies for complex automotive electronic systems. Their participation in projects like SH2APED demonstrates direct product-development intent — designing and validating 70 MPa hydrogen vessels that must meet commercial automotive safety and regulatory standards. They serve as the bridge between academic research and automotive manufacturing reality, lending supply-chain credibility and validation infrastructure that purely academic partners cannot provide.
What they specialise in
In iRel40 (2020–2023), they applied physics-of-failure methods, robustness validation, and design-for-reliability frameworks to chip-package-board systems in automotive electronics.
SH2APED explicitly addresses hydrogen regulations and safety standards for fuel cell vehicles, reflecting expertise in navigating automotive homologation and regulatory compliance.
SH2APED keywords include optical fibres and functional materials alongside fire resistance, indicating engagement with novel sensing and material technologies for structural hydrogen vessels.
How they've shifted over time
Their H2020 participation began in 2020 with a focus on electronics reliability engineering — applying Quality 4.0 and physics-of-failure methods to the growing complexity of automotive chip-package-board systems, a challenge driven by the proliferation of ECUs and power electronics in modern vehicles. By 2021, their attention had shifted dramatically toward hydrogen storage, joining the SH2APED project to develop 70 MPa pressure enclosures and address the mechanical, thermal, and regulatory challenges of on-board hydrogen systems for fuel cell vehicles. This is not a random pivot — it mirrors Plastic Omnium's corporate-level strategic bet on hydrogen mobility as the next major product line, suggesting their EU research engagement is tightly aligned with commercial roadmap priorities.
This organization is actively building expertise in hydrogen storage technology for automotive applications, making them a strategically relevant partner for any consortium targeting fuel cell vehicle components, 700-bar hydrogen safety standards, or the commercial scaling of hydrogen mobility.
How they like to work
They participate exclusively as consortium partners — they have never coordinated an H2020 project — which is consistent with an industrial R&D unit that contributes specialized technical validation rather than driving research agendas. Their two projects collectively involved 87 unique partners across 14 countries, indicating they join large, multi-stakeholder consortia (iRel40 is an ECSEL JU project with 60+ partners; SH2APED is a Clean Hydrogen JU initiative) rather than small focused teams. Prospective partners should expect a technically capable industrial contributor with automotive OEM supply-chain connections, but not a consortium organizer or project manager.
From just two projects, they have engaged with 87 unique consortium partners across 14 countries — a very broad but shallow network, typical of companies that join large pan-European industry-academia consortia without anchoring a recurring research circle. Their geographic footprint spans Western and Central Europe, consistent with major automotive supply-chain hubs.
What sets them apart
As the dedicated research arm of Plastic Omnium — a Tier 1 global automotive supplier with direct relationships with major OEMs — they carry something most academic or SME partners cannot: a credible pathway from research output to series production. Their involvement in hydrogen vessel development is tied to a real commercial product pipeline, not just research exploration. For consortia seeking to demonstrate industrial relevance and route-to-market for hydrogen or automotive electronics innovations, this entity provides the automotive industry anchor that strengthens both the project credibility and eventual impact claims.
Highlights from their portfolio
- SH2APEDTheir largest-funded project (EUR 192,555) tackles one of the hardest engineering challenges in hydrogen mobility — developing lighter, safer alternative pressure enclosures for 70 MPa on-board hydrogen storage — with direct relevance to commercial fuel cell vehicle rollout.
- iRel40Part of a flagship ECSEL JU consortium applying Quality 4.0 and AI-assisted reliability prediction to automotive electronics, demonstrating that their expertise extends beyond mechanical systems into the digital and semiconductor supply chain.