Safe Composite Pressure Vessels with Self Structural Health Monitoring Capacity - HYMOCA

Project summary

Today, the most efficient and mature means of storing hydrogen is type-IV high pressure composite vessels for on-board applications. However, this technology needs extensive research and development to cut costs and enhance performance and durability to be deployed commercially. Research departments use conservative safety factors for the life cycle/burst pressure ratio and simplified models that lead to over-designed and costly tanks. The HYMOCA project studies new perspectives to design high-performance composite tanks with a self-sensing capacity and provide optimized, safe, and cost-effective solutions for the next generation of high-pressure vessels. An integrated sensing or self-sensing abilities would provide great leverage to reach more economical and designs while remaining safe. The advances of HYMOCA have the potential to open a new range of applications in different sectors, which implies the creation of new market opportunities in the related hydrogen value chain.

Project Details

Call

Call 2022


Call Topic

High performance composites


Project start

01.05.2023


Project end

30.04.2026


Total project costs

1.629.980 €


Total project funding

1.385.801 €


TRL

3 - 5


Coordinator

Dr. Lyazid BOUHALA

Luxembourg Institute of Science and Technology (LIST), 5 AVENUE DES HAUTS FOURNEAUX, 4362 ESCH SUR ALZETTE, Luxembourg


Partners and Funders Details

Consortium Partner   Country Funder
Luxembourg Institute of Science and Technology (LIST)
https://www.list.lu
Research org. Luxembourg LU-FNR
Izmir Institute of Technology (IZTECH)
https://www.iyte.edu.tr
University Turkey TR-TUBITAK
Fraunhofer Institute for Machine Tools and Forming Technology (IWU)
https://www.iwu.fraunhofer.de
Research org. Germany DE-SMWK
IZOREEL Composites
https://www.izoreel.com.tr
SME Turkey TR-TUBITAK
Lightweight Structures Engineering GmbH (LSE)
https://www.lse-chemnitz.de
SME Germany DE-SMWK

Keywords

computational simulation, hydrogen storage, composite materials, mechanical performance, nanocomposite, sensors