Hydrogen-Induced Damage to Polymers at High Pressure: Understanding Interaction and Failure Mechanisms - HYPOLFAIL

Project summary

Green hydrogen (gH2) is essential for a sustainable energy future, but it has inherent challenges for safe storage and transport, especially with traditional materials that are prone to hydrogen embrittlement and permeability issues. This calls for advanced materials capable of withstanding extreme pressure and temperature conditions without degradation. HYPOLFAIL aims to develop optimized polymeric materials with enhanced H2 compatibility and durability, specifically focusing on elastomers and thermoplastics for sealing and high-pressure gas storage applications. Using AI-driven multiscale modeling and in-situ/ex-situ experimental testing, the project will create polymers with improved permeation resistance (10%) and extended service life (20%), pioneering a “design THE materials” approach for sustainable economy applications. The project supports a more reliable, cost-effective H2 economy, which, aligns with EU climate goals, and strengthens Europe’s position in the global H2 market.

Project Details

Call

Call 2024


Call Topic

Sustainable advanced materials for energy


Project start

01.01.2025


Project end

01.01.2028


Total project costs

2.285.185 €


Total project funding

1.899.021 €


TRL

2 - 5


Coordinator

Dr Bernd Schrittesser

SCIOFLEX Hydrodgen GmbH, Haydnstraße 88, 7024 Hirm, Austria


Partners and Funders Details

Consortium Partner   Country Funder
SCIOFLEX Hydrodgen GmbH
https://www.scioflex-hydrogen.com
SME Austria AT-FFG-Mobility
GD Tech
https://www.gdtech.eu
SME Belgium BE-SPW
Seal Maker
SME Austria AT-FFG-Mobility
University of Pannonia
University Hungary HU-NKFIH
Université de Liège
https://www.ltas-cm3.ulg.ac.be/
University Belgium BE-SPW
Johannes Kepler University Linz
https://www.jku.at/ippe
University Austria AT-FFG-Mobility
Matelios
https://www.matelios.it
SME Italy IT-CALABRIA

Keywords

Artificial intelligence, Energy efficiency, Hydrogen, Materials safety, Modelling, Advanced simulation, Energy efficiency, Environmental impact, Green energy, Hydrogen, In situ characterization, Material performance, Material design, Materials for energy,